Automated smart nexus authentication protocol security, verification, and access control

Abstract

A computer-implemented method is described for automated messaging distribution. The method may include receiving user data corresponding to a plurality of users and campaign parameters associated with a messaging campaign, classifying the plurality of users into two or more categories based at least in part on the user data; assigning a first category of to a just-in-time messaging process, assigning a second category of users to a bulk messaging process. providing outputs of the just-in-time messaging process and the bulk messaging process to a messaging scheduler and distribution hub; and causing, distribution of a campaign message corresponding to the messaging campaign across a plurality of communication channels according to the messaging scheduler.

Description

Docket No: 0053-701.600INTERNATIONAL APPLICATIONAUTOMATED SMART NEXUS AUTHENTICATION PROTOCOL SECURITY, VERIFICATION, AND ACCESS CONTROLCROSS-REFERENCE TO RELATED APPLICATION

[0001] This application claims the priority benefit of U.S. Provisional Application 63 / 698,861, the contents of which is herein incorporated by reference in its entirety.TECHNICAL FIELD

[0002] This disclosure relates generally to the field of digital security, identity verification, and access control by users, including but not limited to individuals, agents, businesses, and automated entities.BACKGROUND

[0003] Existing user authentication protocols often rely on specific user inputs such as usernames, passwords, or similar credentials. While these approaches provide a baseline level of security, they are increasingly vulnerable to hacking and other forms of unauthorized access. Moreover, repeatedly entering credentials each time a user attempts to access an application, whether through a webpage, website, or mobile environment, can create significant friction. This burden becomes especially pronounced when users must authenticate multiple times per day.SUMMARY

[0004] Accordingly, there is a need for improved systems and methods that enable secure, low- friction access across a variety of digital interactions, including but not limited to: viewing restricted content, completing e-commerce purchases, registering for services or opportunities, or navigating structured user journeys. Such systems may be implemented and delivered through programmatic integrations, including but not limited to application programming interfaces (APIs), webhooks, or other connecting mechanisms, to provide seamless yet secure authentication at the point of interaction.

[0005] In some aspects, the techniques described herein relate to a computer-implemented method for automated messaging distribution, the method including: receiving user data corresponding toDocket No: 0053-701.600INTERNATIONAL APPLICATION a plurality of users and campaign parameters associated with a messaging campaign; classifying the plurality of users into two or more categories based at least in part on the user data; assigning a first category of users in the plurality of users to a just-in-time messaging process configured to determine a delivery time for messages based on user characteristics; assigning a second category of users in the plurality of users to a bulk messaging process configured to deliver messages according to a predefined schedule; providing outputs of the just-in-time messaging process and the bulk messaging process to a messaging scheduler and distribution hub; and causing, by the distribution hub and to a plurality of client devices associated with the user data, distribution of a campaign message corresponding to the messaging campaign across a plurality of communication channels according to the messaging scheduler.

[0006] In some aspects, the techniques described herein relate to a computer-implemented method, wherein the user data includes at least one of: historical engagement data, demographic information, behavioral activity data, location data, and user preferences.

[0007] In some aspects, the techniques described herein relate to a computer-implemented method, wherein the classifying is performed by a machine learning model trained to predict a likelihood of user engagement.

[0008] In some aspects, the techniques described herein relate to a computer-implemented method, wherein the just-in-time messaging process selects delivery times based on contextual information including at least one of: an obtained user location, obtained recent activity, or obtained client device status.

[0009] In some aspects, the techniques described herein relate to a computer-implemented method, wherein the bulk messaging process is configured to schedule messages during predefined windows or blackout periods associated with regulatory or campaign rules.

[0010] In some aspects, the techniques described herein relate to a computer-implemented method, wherein the campaign message is in an interactive message format including at least one of: one or more carousels, one or more selectable buttons, and one or more embedded shopping cart elements.

[0011] In some aspects, the techniques described herein relate to a computer-implemented method, wherein the plurality of messaging channels include: short message service (SMS), multimedia messaging service (MMS), rich communication services (RCS), over-the-top (OTT) messaging, push notifications, and social media platforms.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0012] In some aspects, the techniques described herein relate to a computer-implemented method, further including monitoring user responses to the campaign message and dynamically updating the classification of users into categories based on observed engagement.

[0013] In some aspects, the techniques described herein relate to a computer-implemented method of performing an adaptive security verification for a client computing device, the method including: in response to detecting a request to perform a security verification for the client computing device, determining one or more identifiers associated with the client computing device; determining, based on the one or more identifiers, a service status of the client computing device; generating, based on the determined service status, an access protocol; applying a security protocol to the access protocol, the security protocol including the one or more identifiers, and being selected based at least in part on the service status; generating an encrypted data packet including the applied security protocol and the one or more identifiers; and transmitting the encrypted data packet for use in verifying the client computing device through a network.

[0014] In some aspects, the techniques described herein relate to a computer-implemented method, further including: causing use of the encrypted data packet to verify or reject the client computing device for one or more of: an online user engagement, an offline user engagement, a transaction, a payment processing step, and a third party navigation journey step.

[0015] In some aspects, the techniques described herein relate to a computer-implemented method, wherein: the one or more identifiers include at least one of: a keyword identifier, a client identifier, and a subscriber mobile number, in response to determining that the client computing device has a service status indicating a lack of association with a predefined carrier service; or the one or more identifiers include at least one of: an instance identifier, the client identifier, and an engaged client mobile identifier packet associated with the client computing device, in response to determining that the client computing device has a service status indicating an association with the predefined carrier service.

[0016] In some aspects, the techniques described herein relate to a computer-implemented method, wherein the security protocol includes a cookie-based identifier protection scheme.

[0017] In some aspects, the techniques described herein relate to a computer-implemented method, wherein the security protocol includes an encryption scheme including at least one of: a symmetric key encryption, an asymmetric key encryption, and a hash-based encryption.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0018] In some aspects, the techniques described herein relate to a computer-implemented method, wherein generating the encrypted data packet includes correlating the one or more identifiers and generating a composite client signature based at least in part on the correlation and the service status.

[0019] In some aspects, the techniques described herein relate to a computer-implemented method, wherein the access protocol is generated to be compatible with at least one of: a web application, a mobile application, and an application programming interface.

[0020] In some aspects, the techniques described herein relate to a system configured for performing automated messaging distribution, the system including: a processor; and memory configured to store program instructions, wherein, when executed by the processor, the program instructions cause the processor to perform operations including: receiving user data corresponding to a plurality of users and campaign parameters associated with a messaging campaign; classifying the plurality of users into two or more categories based at least in part on the user data; assigning a first category of users in the plurality of users to a just-in-time messaging process configured to determine a delivery time for messages based on user characteristics; assigning a second category of users in the plurality of users to a bulk messaging process configured to deliver messages according to a predefined schedule; providing outputs of the just-in-time messaging process and the bulk messaging process to a messaging scheduler and distribution hub; and causing, by the distribution hub and to a plurality of client devices associated with the user data, distribution of a campaign message corresponding to the messaging campaign across a plurality of communication channels according to the messaging scheduler.

[0021] In some aspects, the techniques described herein relate to a system, wherein the user data includes at least one of: historical engagement data, demographic information, behavioral activity data, location data, and user preferences.

[0022] In some aspects, the techniques described herein relate to a system, wherein the classifying is performed by a machine learning model trained to predict a likelihood of user engagement.

[0023] In some aspects, the techniques described herein relate to a system, wherein the just-in- time messaging process selects delivery times based on contextual information including at least one of: an obtained user location, obtained recent activity, or obtained client device status.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0024] In some aspects, the techniques described herein relate to a system, wherein the bulk messaging process is configured to schedule messages during predefined windows or blackout periods associated with regulatory or campaign rules.

[0025] In some aspects, the techniques described herein relate to a system, wherein the campaign message is in an interactive message format including at least one of: one or more carousels, one or more selectable buttons, and one or more embedded shopping cart elements.

[0026] In some aspects, the techniques described herein relate to a system, wherein the plurality of messaging channels include: short message service (SMS), multimedia messaging service (MMS), rich communication services (RCS), over-the-top (OTT) messaging, push notifications, and social media platforms.

[0027] In some aspects, the techniques described herein relate to a system, wherein the operations further include monitoring user responses to the campaign message and dynamically updating the classification of users into categories based on observed engagement.

[0028] In some aspects, the techniques described herein relate to a non-transitory computer- readable storage medium for use in conjunction with a computer, the computer-readable storage medium storing program instructions that, when executed by the computer, cause the computer to carry out one or more operations including: receiving user data corresponding to a plurality of users and campaign parameters associated with a messaging campaign; classifying the plurality of users into two or more categories based at least in part on the user data; assigning a first category of users in the plurality of users to a just-in-time messaging process configured to determine a delivery time for messages based on user characteristics; assigning a second category of users in the plurality of users to a bulk messaging process configured to deliver messages according to a predefined schedule; providing outputs of the just-in-time messaging process and the bulk messaging process to a messaging scheduler and distribution hub; and causing, by the distribution hub and to a plurality of client devices associated with the user data, distribution of a campaign message corresponding to the messaging campaign across a plurality of communication channels according to the messaging scheduler.

[0029] In some aspects, the techniques described herein relate to a non-transitory computer- readable storage medium, wherein the user data includes at least one of: historical engagement data, demographic information, behavioral activity data, location data, and user preferences.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0030] In some aspects, the techniques described herein relate to a non-transitory computer- readable storage medium, wherein the classifying is performed by a machine learning model trained to predict a likelihood of user engagement.

[0031] In some aspects, the techniques described herein relate to a non-transitory computer- readable storage medium, wherein the just-in-time messaging process selects delivery times based on contextual information including at least one of: an obtained user location, obtained recent activity, or obtained client device status.

[0032] In some aspects, the techniques described herein relate to a non-transitory computer- readable storage medium, wherein the bulk messaging process is configured to schedule messages during predefined windows or blackout periods associated with regulatory or campaign rules.

[0033] In some aspects, the techniques described herein relate to a non-transitory computer- readable storage medium, wherein the campaign message is in an interactive message format including at least one of: one or more carousels, one or more selectable buttons, and one or more embedded shopping cart elements.

[0034] In some aspects, the techniques described herein relate to a non-transitory computer- readable storage medium, wherein the plurality of messaging channels comprise: short message service (SMS), multimedia messaging service (MMS), rich communication services (RCS), over- the-top (OTT) messaging, push notifications, and social media platforms.

[0035] In some aspects, the techniques described herein relate to a non-transitory computer- readable storage medium, wherein the operations further include monitoring user responses to the campaign message and dynamically updating the classification of users into categories based on observed engagement.

[0036] The details of one or more implementations are set forth in the accompanying drawings and the description below. Other features will be apparent from the description and drawings, and from the claims.BRIEF DESCRIPTION OF THE FIGURES

[0037] FIG. 1 is a block diagram illustrating an example of a system for providing messaging, access, and authentication with respect to third party services.

[0038] FIG. 2 is a block diagram illustrating an example access and security automation layer, in accordance with an embodiment of the present disclosure.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0039] FIG. 3 is a block diagram illustrating an example of an automated security verification hub, in accordance with an embodiment of the present disclosure.

[0040] FIG. 4 is a block diagram illustrating an example flow diagram representing selection of a first security protocol or a second security protocol, in accordance with an embodiment of the present disclosure.

[0041] FIG. 5 is a block diagram illustrating an example of performing a silent network automated protocol identifier verification process, in accordance with an embodiment of the present disclosure.

[0042] FIG. 6 is a flowchart illustrating a process for adaptive security verification for a client computing device, in accordance with an embodiment of the present disclosure.

[0043] FIG. 7 is a block diagram of a SNAP verification layer that supports authenticating users with a smart network protocol and multi-channel encryption, in accordance with an embodiment of the present disclosure.

[0044] FIG. 8 is a flowchart illustrating a process for automated messaging distribution for a client computing device, in accordance with an embodiment of the present disclosure.

[0045] FIG. 9 is a block diagram illustrating an example of an automated smart network authentication security and access control system in accordance with an embodiment of the present disclosure.

[0046] FIG. 10 is a block diagram illustrating an example of an automated messaging distribution array generator, in accordance with an embodiment of the present disclosure.

[0047] FIG. 11 is a block diagram illustrating an example access and security automation layer, in accordance with an embodiment of the present disclosure.

[0048] FIG. 12 is a block diagram illustrating an example of an automated security verification hub, in accordance with an embodiment of the present disclosure.

[0049] FIG. 13 is an example flow diagram representing selection of a first security protocol or a second security protocol, in accordance with an embodiment of the present disclosure.

[0050] The illustrated implementations are merely examples and are not intended to limit the disclosure. The schematics are drawn to illustrate features and concepts and are not necessarily drawn to scaleDocket No: 0053-701.600INTERNATIONAL APPLICATIONDETAILED DESCRIPTION

[0051] The described embodiments relate, generally, to techniques for providing secure access and security for viewing content, performing an e-commerce purchase, registering within a registration opportunity, completing navigation through a defined navigation journey, or the like. Disclosed herein are systems and methods for employing multi-stage access and security mechanisms, where the systems and methods may function to generate, provide, and manage messages and links to a user on a mobile and / or cellular computing device, and / or other devices that can receive commensurate communications (e.g. desktop computers, laptop computers, tablets, smart glasses, smart headphones / earbuds). In sending such messages and links, the systems and methods may utilize Rich Communication Services (RCS), Silent Network Authentication (SNA) techniques, biometric analysis techniques, device hardware components (e.g., Subscriber Identity Modules (SIM) cards or other smart card and / or sensors), and automated messaging techniques to provide users with secure access to content as well as secure viewing and purchasing capabilities.

[0052] In general, the described subject matter herein pertains to performing digital security, identity verification, and user access control. Users may include, but are not limited to individuals, agents, businesses, and automated entities. In some embodiments, the described subject matter may include systems and methods for enabling secure and controlled access to data, applications, and / or services on electronic devices and networked systems. Such devices include, without limitation, cellular handheld devices, smart phones, heads-up displays, virtual or augmented reality devices, wearable devices, tablets, laptop and desktop computers, servers, and other computing or communication devices connected to the Internet and / or mobile carrier networks. In some embodiments, access to the secured resources may be facilitated by direct credential-based access, such as entry of a username / password combination, passphrase, or biometric identifier (e.g., fingerprint, voice recognition, facial recognition, iris scan, or the like) and / or token-based access, including the use of digital certificates, time-sensitive one-time passwords (OTPs), secure hardware tokens, and / or mobile authentication codes, link-based access, wherein a user is provided with a secure hyperlink, deep link, or quick response (QR) code generated uniquely for the session or transaction, which when activated initiates an authentication workflow, where such links may be transmitted via secure messaging platforms, email, SMS / MMS / RCS, application push notifications, or embedded within trusted digital environments, delegated access methods, inDocket No: 0053-701.600INTERNATIONAL APPLICATION which an agent, proxy, or third-party service provider receives a limited-use access key, link, or token enabling restricted entry to specified resources under controlled conditions, multi-factor and adaptive authentication protocols, combining and / or sequencing two or more of the above access methods, and optionally employing contextual information such as device identity, geolocation, behavioral patterns, or network status to dynamically adjust security requirements, etc., whereby the disclosed system may further provide for revocation, expiration, and regeneration of access mechanisms based on various established and / or security oriented randomized criteria, including links and tokens, in real-time or near real time to reduce exposure to unauthorized use. Access may be logged, monitored, and analyzed to maintain audit trails and to comply with regulatory and contractual security obligations.

[0053] In some embodiments, the systems and methods described herein employ a security authentication protocol that utilizes network-level data, device-specific identifiers, and encryption algorithms to authenticate users without requesting active input. The systems may integrate multichannel authentication methods, including biometric verification, encrypted messaging, and secure token generation, to provide a scalable and secure authentication framework for mobile and web platforms. An identifier verification may function through a first path for non-carrier identifiers (using keywords, client IDs, and subscriber numbers) and a second path for carrier identifiers (using system-assigned IDs and mobile ID packets). Each path uses unique identifier algorithms, access protocol generation, and security / encryption layers to produce verified, encrypted data packets for downstream authentication.

[0054] Conventional authentication systems may face significant challenges in balancing security, user convenience, and scalability. Active user input methods, such as passwords and one-time passcodes, may be prone to security breaches and may create friction in the user experience. Multifactor authentication, while potentially more secure, may often force the use of additional authentication steps that may deter user engagement. Furthermore, conventional network-level authentication solutions may be limited in the ability to integrate seamlessly across mobile and web platforms, particularly when handling diverse identifier types such as mobile phone network carrier-based and non-carrier-based data. These systems may frequently lack robust encryption protocols and may fail to provide a unified framework for managing authentication across multiple channels. As a result, there may be a pressing need for a scalable, secure, and user-friendly authentication system that minimizes user interaction while ensuring high levels of security.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0055] In some embodiments, the described systems and methods may be employed to provide secure access to streaming media content. For example, a user may receive a Rich Communication Services (RCS) message containing a secure link to access a video or audio stream hosted on a subscription-based platform. Upon receipt of the message, the system may initiate a Silent Network Authentication (SNA) check to verify that the recipient device corresponds to the subscribed phone number. The secure link may be further bound to device hardware attributes such as the Subscriber Identity Module (SIM) card or sensor-based identifiers. Once the user selects the link, biometric analysis (e.g., fingerprint or facial recognition) could also be requested to confirm possession of the device. If the SNA and biometric checks both succeed, the link automatically decrypts within the user’s browser or installed application, seamlessly granting the user secure access to the requested content. This layered approach ensures that authorized subscribers can view premium media content, while also minimizing friction in the user experience. Further, in some embodiments the described systems and methods may be employed to facilitate secure e-commerce purchasing. For example, when a user browses an online catalog, the system may automatically generate a secure SMS, MMS, or RCS message containing a purchase confirmation link. Prior to message transmission, the system may perform a SNA check to confirm that the user’s mobile identity is valid. When the user selects the link, the system may invoke multi-stage access controls, including biometric analysis (e.g., facial scan or voice recognition) combined with decryption using a key stored in the device’s secure hardware enclave (e.g., SECURE ENCLAVE for iOS or TRUSTZONE for Android). After successful authentication, the systems described herein may allow a purchase or access to proceed, transmitting the payment confirmation or access confirmation to the merchant (or user) using an application programming interface (API) or webhook. This multi-layered security flow ensures that transactions cannot be fraudulently completed even if the link is intercepted, thereby providing a robust mechanism for secure mobile commerce.

[0056] FIG. 1 is a block diagram illustrating an example of a system 10 for providing messaging, access, and authentication with respect to third party services. Communication among electronic devices is shown in FIG. 1, which presents a block diagram illustrating an example of a system 10 that includes electronic devices 110-X (e.g., electronic device 110-1, electronic device 110-2), which may represent one or more of: a computer, a portable electronic device, a cellular telephone, a tablet computer, a smartwatch, a wearable device, or the like. A computer 12 (such as a cloud-Docket No: 0053-701.600INTERNATIONAL APPLICATION based computer or server) and a hosting computer 14 are also depicted and may communicate using wired (or non-wireless communication) over a network 16 (such as the Internet) and / or optional wireless communication using a cellular-telephone network 18 (e.g., using an optional base station 20), a wireless local area network (e.g., via an optional access point 22) and / or another wireless communication technique. The optional access point 22 may provide access to network 116, such as the Internet, over an Ethernet protocol, and may be a physical access point or a virtual or software access point that is implemented on a computer or an electronic device.

[0057] In a non-limiting example, the computer 12 may inject a hosted field into a document provided by hosting computer 14. For example, computer 12 may provide, over network 16, the hosted field for inclusion in a webpage associated with a third party (i.e., that is other than a provider of the communication technique), and that is provided, via network 16 and cellular- telephone network 18 (or the optional access point 22), by hosting computer to one of electronic devices 110-X (such as electronic device 110-1). An application (such as a Web browser) executed in an environment of electronic device 110-1 (such as an operating system) may display the document. Note that the hosted field may allow a user of electronic device 110-1 (who is sometimes referred to as an ‘individual’) to indicate a willingness to receive one or more messages from computer 12 and that specifies a telephone number associated with electronic device 110-1. Such user may be called a subscriber customer.

[0058] In some embodiments, computer 12 may inject a hosted field into an online retail checkout page hosted by computer 14. For example, while a user of electronic device 110-1 is completing a purchase on a retailer’s webpage, a hosted field is dynamically presented alongside the order summary, prompting the user to enter a mobile telephone number to subscribe to promotional or transactional messaging. The hosted field is delivered from computer 12, over network 16 and cellular-telephone network 18, into the webpage displayed by the browser on electronic device 110-1. When the user enters their mobile number into the hosted field and confirms consent, the input is transmitted securely to computer 12. The system may then perform an initial verification procedure, such as a Silent Network Authentication (SNA) check or an identity match lookup with the carrier, to confirm the legitimacy of the number. Upon successful verification and completion of a double opt-in process, the user’s subscription profile is created and stored, thereby enabling the retailer to send secure promotional and transactional messages to the newly subscribed customer. Further, in some embodiments, computer 12 may inject a hosted field into an eventDocket No: 0053-701.600INTERNATIONAL APPLICATION registration page hosted by computer 14. For example, as a user of electronic device 110-1 completes registration for a concert or conference through a third-party ticketing website, the hosted field is embedded within the registration form and displayed by the web browser on the device. This hosted field invites the user to enter a mobile telephone number to receive updates about the event, including ticket confirmations, venue changes, or reminders. Upon entry of the number, the hosted field transmits the information over network 16 and cellular-telephone network 18 back to computer 12. The system may generate a temporary device fingerprint at the time of entry and link it to the submitted number. After the user confirms subscription through a double opt-in process, the device fingerprint is bound to the subscriber’s profile to provide future device verification. This ensures that event updates are securely delivered only to the authorized device and cannot be accessed by unauthorized parties.

[0059] When the user or subscriber customer activates the hosted field and provides the telephone number, electronic device 110-1 may provide, via network 16 and cellular-telephone network 18 (or the optional access point 22), information specifying activation of the hosted field in the document and the telephone number to hosting computer 14. In turn, hosting computer 14 may provide, via network 16, this information to computer 12.

[0060] After receiving the information specifying activation of the hosted field in the document, computer 12 may dynamically generate a customized second document (such as a webpage) that includes information about one or more transactions (such as one or more upcoming events) of interest to the individual or subscriber customer associated with the telephone number. Then, computer 12 may send a message to an address corresponding to the telephone number, where the message includes a link to the customized second document. For example, the message may be sent via network 16 and cellular-telephone network 18 (or the optional access point 22). Note that the message may include a Short Message Service (SMS) message (which is sometimes referred to as a ‘text message’).

[0061] Moreover, after receiving the message, electronic device 110-1 may display the message. If the individual or subscriber customer activates the link, electronic device 110-1 may provide, via network 16 and cellular-telephone network 18 (or the optional access point 22), information specifying activation of the link to computer 12.

[0062] When computer 12 receives information specifying activation of the link from electronic device 110-1, computer 12 may provide, via network 16 and cellular-telephone network 18 (or theDocket No: 0053-701.600INTERNATIONAL APPLICATION optional access point 22), information specifying the customized second document to electronic device 110-1 for display on the electronic device (such as by the application executing on electronic device 110-1). Furthermore, as described further below, computer 12 may provide, via network 16 and cellular-telephone network 18 (or the optional access point 22), authentication information (such as an authentication cookie) to electronic device 110-1 to authenticate completion of a given transaction in the one or more transactions. Note that the authentication information may be valid for a predefined time interval, such as 1 day, a week, or a month. After this predefined time interval has elapsed, the authentication information may expire.

[0063] Additionally, the customized second document may allow completion of the given transaction in the one or more transactions, such as purchasing one or more tickets to an upcoming event. For example, the individual or subscriber customer may interact with the customized second document to provide, via network 16 and cellular-telephone network 18 (or the optional access point 22), to exchange information with computer 12 to complete the transaction As noted previously, a purchase request received from electronic device 1 10-1 and associated with the customized second document may be rejected by computer 12 if the authentication information is not stored on electronic device 110-1.

[0064] In some embodiments, after receiving the information specifying activation of the hosted field, computer 12 may confirm that the telephone number is included in a data structure (such as a data structure with information about subscribers to a transaction service) prior to dynamically generating the customized webpage. For example, the one or more transactions of interest to the individual or subscriber customer may be associated with an entity (such as an event organizer also referred to herein as a client of the system), and the individual or subscriber may have a subscription with the entity or client. If the telephone number is included in the data structure, computer 12 may proceed and dynamically generate the customized second document. Otherwise, computer 12 may communicate, via network 16 and cellular-telephone network 18 (or the optional access point 22), with electronic device 110-1 to confirm that the individual or subscriber customer wants to receive the one or more messages prior to dynamically generating the customized second document.

[0065] Moreover, the individual or subscriber customer may use electronic device 110-1 to request a dynamically generated customized third document. For example, electronic device 110-1 may provide, via network 16 and cellular-telephone network 18 (or the optional access point 22), aDocket No: 0053-701.600INTERNATIONAL APPLICATION request message with a predefined code (such as an alphanumeric code) addressed to a second address corresponding to a second telephone number associated with computer 112. In response, computer 12 may dynamically generate the customized third document that includes information about one or more additional transactions of interest to the individual or subscriber customer associated with the telephone number. Then, computer 12 may provide, via network 16 and cellular-telephone network 18 (or the optional access point 22), another message addressed to the address corresponding to the telephone number, where the other message includes a link to the customized third document.

[0066] In these ways, the communication techniques may be used to facilitate the conducting of one or more transactions in a secure manner. Moreover, because an instance of the dynamically generated customized document is tailored, at a particular time, to the specific interests of the individual or subscriber customer, the content included in the instance of the customized document may be more relevant to the individual or subscriber customer and immediately actionable (without having that the individual navigate to content that may be of interest to them). This capability may enhance the user experience of the individual or subscriber customer and may encourage the individual or subscriber customer to perform one or more transactions. The communication technique may enable a customer capture rate of greater than 10%, 15%, 20%, 25%, or 30%. For example, the customer capture rate may be 14.5%.

[0067] In some embodiments, communication among components in system 10 involves wireless communication over network 26, for example. During the wireless communication, electronic devices 110-X, the optional base station 20 and / or the optional access point 22 may: transmit advertising frames on wireless channels, detect one another by scanning wireless channels, establish wireless connections (for example, by transmitting association requests), and / or transmit and receive packets or frames (which may include the association requests and / or additional information as payloads). Moreover, during the wired communication, electronic devices 110-X, computer 12, and / or the hosting computer 14 may receive packets or frames using a wired communication technique or protocol (e.g., Ethernet II or an IEEE 802.3 standard). In some embodiments, the optional base station 18 and / or the optional access point 22 may convert packets or frames that are received using the wired communication technique to a WLAN communication technique or protocol (such as an IEEE 802.11 standard or an LTE standard), and may wirelessly transmit the packets or frames. Similarly, the optional base station 18 and / or the optional accessDocket No: 0053-701.600INTERNATIONAL APPLICATION point 22 may: receive packets or frames using the WLAN communication technique; convert the packets or frames to the wired communication technique; and transmit the packets or frames. Thus, the optional base station 18 and / or the optional access point 22 may perform the functions of an access point.

[0068] The system 10 may be implemented through a multi-layered architecture that supports seamless messaging, authentication, and transaction processing. At the frontend, user interfaces are provided for web and mobile platforms, incorporating authentication mechanisms and payment initiation flows tailored to various methods. The backend server serves as the core, handling centralized authentication, payment processing logic, session and token management, and integrations with external services for messaging, authentication, and payment gateways. These external services could encompass Mobile Network Operators (MNOs) for Silent Network Authentication (SNA), the WhatsApp Business API for messaging, SMS gateways for SMS / MMS / RCS delivery, Email Service Providers (ESPs) for communications, push notification services like FCM and APNs, biometric authentication APIs such as WebAuthn, Touch ID, and Face ID, payment gateways (e.g., STRIPE and PAYPAL or custom options), and fraud detection services either third-party or bespoke. Supporting data persistence and analysis, databases store user data, transaction records, sessions, logs, and analytics. Traffic management occurs via an API gateway that oversees API routing, authentication, and flow control, while a message queue facilitates asynchronous task handling to ensure scalability. Finally, a developer dashboard equips developers with tools to manage API keys, monitor logs, and access analytics, enabling efficient oversight and optimization of the system's operations.

[0069] FIG. 2 is a block diagram illustrating an example access and security automation layer200, in accordance with an embodiment of the present disclosure. The layer 200 may be used to provide security for accessing and using services, devices, and / or networks associated with system Y00 in FIG. 1. In operation, a SNAP security API 100 for external security call may be generated by a third party connected to the SNAP access and security automation layer 200, layer 200 activates entry software code packet for security automation layer and instance ID200a, which calculates, interprets, and compiles data asset identifiers corresponding to the specified call request from SNAP security API 100 for external security call requests and other variables including encryption, etc., and passes a security software code packet 200b through security software code API endpoint / webhook 200c, etc. to 3rd party authentication services provider API endpoint 200d,Docket No: 0053-701.600INTERNATIONAL APPLICATION which enables 3rd party authentication services provider validation layer 200e to identify the specified call request at SNAP security API 100 for external security call requests and other variables including encryption specifics, etc. that enable system truncation to a 3rd party mobile carrier network to run a cellular carrier authentication protocol 200f to establish a pass or fail status. If the carrier SNAP responds back with a PASS 200g, then 3rd party authentication services provider validation layer 200i may transmit a PASS status 200g through 200d 3rd party authentication services provider API endpoint to 200c security software code API endpoint / webhook, etc. delivering 200g PASS status to 200j exit software code packet for security automation layer and / or 3rd party authorization layer, which calls 200k 3rd party SSO token API to acquire a single sign-on token that is embedded into an encryption string created within 200j encryption generator that gets embedded within 200j exit software code packet for security automation layer and / or 3rd party authorization layer, which allocates a 100 SNAP security API endpoint for external security call requests response that is sent with the specific augmented access and unique navigation attributes made available from 200 SNAP access and security automation layer; however, if 200f cellular carrier SNAP responds back 200h FAIL, then 200i 3rd party authentication services provider validation layer passes 200h FAIL status through 200d 3rd party authentication services provider API endpoint to 200c security software code API endpoint, which delivers 200h FAIL status to 200j exit software code packet for security automation layer and / or 3rd party authorization layer, which allocates a 100 SNAP security API endpoint for external security call requests response that is not enabled within the specific augmented access and unique navigation attributes made available from 200 SNAP access and security automation layer, and system continues to 300.

[0070] FIG. 3 is a drawing illustrating an example of an automated security verification hub, in accordance with an embodiment of the present disclosure. At 300 automated security verification hub, 200g PASS and / or 200h FAIL status is ingested into 302 SNAP security verification channel selector which distributes system pathway through either (1) 302 3rd party security verification services API for a 100 SNAP security API endpoint for external security call requests response that is sent with the specific augmented access and unique navigation attributes made available from 200 SNAP access and security automation layer receiving 200g PASS status, continuing to 305 SNAP verification automation layer; or, (2) for 100 SNAP security API endpoint for external security call requests response that is not enabled with the specific augmented access and uniqueDocket No: 0053-701.600INTERNATIONAL APPLICATION navigation attributes made available from 200 SNAP access and security automation layer, whereby 301 SNAP security verification channel selector distributes system pathway to 300a alternate verification channel 1, which can continue operations within 300 automated security verification hub at 305 SNAP system verification automation layer and / or continues outside of 300 automated security verification hub to 303 alternate destination 1, and / or 300b alternate verification channel 2, which can continue operations within 300 automated security verification hub at 305 SNAP system verification automation layer and / or continues outside of 300 automated security verification hub to 304 alternate destination 2, etc. At 305 SNAP system verification automation layer, verification of security type, which is determined by any one of or any combination of SNAP security and / or system access code security sent via SMS / MMS / RCS and / or biometric security, etc. whereafter 305 system verification automation layer truncates system pathway into 305a, 305b, and / or 305c, etc. 3PP cellular carrier service(s) and / or to 306 external security 1 and / or 307 external security 2, etc. to gain access to 400 system security and / or access gateway, which can distribute system pathway to external access ports 400a, 400b and so on, or directly to internal access ports at 500.

[0071] FIG. 4 is a drawing illustrating an example flow diagram representing selection of a first security protocol or a second security protocol, in accordance with an embodiment of the present disclosure. When 100 SNAP security API endpoint for external security call requests response that is sent with the specific augmented access and unique navigation attributes made available from 200 SNAP access and security automation layer receiving 200g PASS status, 500 carrier / non- carrier access port directs the navigation journey of flagged 200g PASS through cellular path 502, which runs SNAP security within 502a navi gation / appli cation pages for user journey by 502b user engagement activation command being triggered, which cycles on system SNAP verification automation layer 305 to run processing of navigation requests, through system 301 secure financial environment generator to interoperate through system 200d 3rd party verification services API to enable system 301 SNAP verification channel selector to back-test and confirm 200g PASS status to enable 520 access, verification, and / or payment processing, and / or one-touch ecommerce payment, etc. to support navigation journey users having received 200g PASS status, enabling 504 system and / or 3rd party card vault access to allow navigation journey users having received 200g PASS status to complete their 505 user experience, navigation, and / or purchase journey, etc.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0072] FIG. 5 is a drawing illustrating an example of performing a silent network automated protocol identifier verification process, in accordance with an embodiment of the present disclosure. When 100 SNAP security API endpoint for external security call requests responds with 200h FAIL status, user navigation j ourney is directed by 500 carrier / non-carrier access port through 501 non-cellular connectivity path, which points user navigation journey of a 200h FAIL status to 501a non-carrier online connectivity path, where user navigation journeys flagged as 200h FAIL status are requested to input information at 501b user information capture certificate and thereafter activate 501c user engagement activation command, which triggers 301 secure financial environment generator to run alternative security protocol(s) through 700 300 security verification hub, triggering the formation and delivery of a four-digit secure access code generated at 304 secure access code generator or other to be delivered via SMS / MMS / RCS, etc. and / or other means of delivery to users within navigation journey that have received 200h FAIL status to input within the provided 50 Id user security input field and / or other usable input facsimile, which enables triggering of 503 access, verification, and / or payment processing, etc. to retrieve payment credentials from 504 system and / or 3rd party card vault to enable completion of user navigation journey, etc. at 505 user engagement completed.

[0073] When Smart Nexus Automated Protocol (SNAP) access and security automation layer 200 is activated for carrier path instances, 305 SNAP verification automation layer can choose to activate 301b SNAP identifier verification - carrier path to run a confirmation cycle verifying that 200g PASS status is tied to the applicable verification session instance created at 200a entry software code packet for security automation layer and instance ID, where 301b / a unique identifier algorithms initiate 301b / b system assigned instance ID verification, and 301b / c client identifier confirms that the verification session instance assigned at 200a entry software code packet for the security automation layer has been assigned to the appropriate system client, and that the 30 Ib / d engaged client mobile ID packet, which includes subscriber mobile number, corresponds to the identifying signature attributes assigned by 200 system operations to the user navigating the 502a navigation / application pages for user journey during the 305 SNAP verification automation layer processes which can include information such as browser type and version, operating system and version, screen resolution, time zone, language settings, device model, IP address, etc. Once confirmed, 301b / e access protocol generator algorithms prompt 30 Ib / f security protocol for SNAP encryption layer to formulate the encryption string to facilitate the creation of the 301b / g SNAPDocket No: 0053-701.600INTERNATIONAL APPLICATION encrypted data packet containing the SNAP PASS / FAIL status confirmed as attributable to the overall 301b / g SNAP encrypted data packet, as well as the confirmed system client ID, the confirmed session instance ID, and the confirmed SNAP security protocol, whereafter the 30 Ib / g SNAP encrypted data packet is passed to 301b / a unique identifier algorithms to notify validation to 305 verification automation layer for 200a entry software code packet for security automation layer and instance ID and / or to 601 3rd party security protocol, a system SDK, a system plugin, and / or system API endpoint, etc.

[0074] From 501c user engagement activation command, when 200 SNAP access and security automation layer is activated for non-carrier path instances, for example via WIFI and / or over the top (OTT) communications systems, etc., 501c can choose to activate 301a SNAP identifier verification - non-carrier path to run a confirmation cycle verifying that the 200g PASS status is tied to the applicable verification session instance created at 200a entry software code packet for security automation layer and instance ID, where 301a / a unique identifier algorithms initiate 301 a / b system assigned instance ID verification, where 301 a / c client identifier confirms the verification session instance assigned to the system client at 200a entry software code packet for security automation layer and instance ID; and, that 301a / d subscriber mobile number corresponds to the mobile number documented by 200 SNAP access and security automation layer system operations of the user navigating the 501a navigation / application pages for user journey during the 305 SNAP verification automation layer processes. Once confirmed, 301a / e access protocol generator algorithms prompt 301a / f security protocol for SNAP encryption layer to formulate the encryption string to facilitate the creation of the 301a / g SNAP encrypted data packet containing the SNAP PASS / FAIL status confirmed as attributable to the overall 301a / g SNAP encrypted data packet, as well as the confirmed system client ID, the confirmed session instance ID, and the confirmed SNAP security protocol, whereafter the 301a / g SNAP encrypted data packet is passed to 301a / a unique identifier algorithms to notify validation to 300 security verification hub and / or to 600 3rd party security protocol 600, a system SDK, a system plugin, and / or system API endpoint, etc.

[0075] FIG. 6 is a flowchart illustrating a process 1500 for adaptive security verification for a computing device. The operations of the process 1500 may be implemented by one or more components of a networked computing system such as a server side device or network (e.g., hosting computer 14, computer 12, network 16, and / or network 18), as shown in system 10 andDocket No: 0053-701.600INTERNATIONAL APPLICATIONFIG. 5. The server side and / or network components may include any or all of the systems, modules, and functionality described in FIGS. 2-5 and 7-13. For example, the operations of the processl500 may be performed by a SNAP verification component or layers 305, 1208, 1308, as described with reference to FIGS. 2-5 and 7-13. In some embodiments, one or more components of a networked computing system may execute a set of instructions to control the functional elements of the component(s) to perform the described functions of process 1500. Additionally or alternatively, the one or more components of a networked computing system may perform aspects of the described functions using special -purpose hardware.

[0076] At block 1502, the process 1500 may include detecting a request to perform a security verification for a client computing device (e.g., device 110-1 or 110-2). In response to detecting the request to perform the security verification for the client computing device, determining one or more identifiers associated with the client computing device. The one or more identifiers may include at least one of: a keyword identifier 301a / b, a client identifier 301a / c, or a subscriber mobile number 301 a / d. In some embodiments, the one or more identifiers may instead include at least one of: an instance identifier 301b / b, a client identifier 301b / c (or client identifier 301a / c), and an engaged client mobile identifier packet 301d / d. The operations of block 1502 may be performed in accordance with examples as disclosed herein with respect to at least FIG. 5.

[0077] At block 1504, the process 1500 may include determining, based on the one or more identifiers, a service status of the client computing device. The service status may indicate that the client computing device has a service status indicating a lack of association with a predefined carrier service if, for example, the one or more determined identifiers include at least one of: the keyword identifier 301a / b, the client identifier 301a / c, or the subscriber mobile number 301a / d. The service status may indicate that the client computing device has a service status indicating an association with the predefined carrier service if, for example, the one or more identifiers are determined to be at least one of: the instance identifier 301b / b, the client identifier 301b / c (or client identifier 301a / c), or the engaged client mobile identifier packet 301 d / d associated with the client computing device.

[0078] At block 1506, the process 1500 may include generating an access protocol based at least in part on the service status, as described in FIG. 5 herein. For example, the access protocol may be generated to be compatible with at least one of: a web application, a mobile application, and an application programming interface.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0079] At block 1508, the process 1500 may include applying a security protocol to the access protocol. The security protocol may include at least one of: cookie-based protection, encryption protection, and biometric protection. For example, the security protocol may include a cookiebased identifier protection scheme. In another example, the security protocol may include an encryption scheme including at least one of: a symmetric key encryption, an asymmetric key encryption, and a hash-based encryption.

[0080] At block 1510, the process 1500 may include generating an encrypted data packet comprising the applied security protocol and the one or more identifiers. For example, generating the encrypted data packet may include correlating the one or more identifiers and generating a composite client signature based at least in part on the correlation and the service status.

[0081] At block 1512, the process 1500 may include transmitting the encrypted data packet for use in verifying the client device through a network, as described in FIG. 5. In some embodiments, the process 1500 further includes causing use of the encrypted data packet to verify or reject the client computing device for one or more of: an online user engagement, an offline user engagement, a transaction, a payment processing step, and a third party navigation journey step. For example, the server or network device carrying out process 1500 may trigger use of the encrypted data packet by the client computing device to verify or reject activities or networks in which the client computing device is attempting to access.

[0082] FIG. 7 is a block diagram 1700 of a SNAP verification layer 200 that supports authenticating users with a smart network protocol and multi-channel encryption. The SNAP verification layer 200 may be an example of aspects of a SNAP verification component 503, 301a, or 301b, or any combination thereof. The SNAP verification layer 200, or various components thereof, may be an example of means for performing various aspects of authenticating users with a smart network protocol and multi-channel encryption. For example, the SNAP verification layer 200 may include one or more of a client identifier component 1704, a verification output component 1706, an access protocol component 1708, a security protocol component 1710, an encrypted data packet component 1712, a client device transmission component 1714, a sessionspecific identifier component 1716, a multi-layered encryption component 1718, a dynamic expiration component 1720, a biometric hash component 1722, a third-party validation component 1724, and / or other components. Each of these components may communicate, directly or indirectly, with one another (e.g., via one or more buses).Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0083] The client identifier component 1704 may be configured as or otherwise support a means for receiving one or more identifiers associated with a client device, the one or more identifiers may include at least one of: a keyword identifier, a client identifier, or a subscriber mobile number. In some embodiments, the client identifier component 1704 may determine identifiers based on metadata extracted from a user's interaction with a web browser or mobile application. The client identifier component 1704 may further support identifiers that include system-assigned instance IDs generated during a session initialization process. The client identifier component 1704 may receive identifiers transmitted through secure communication protocols, which may include encrypted data packets. In some embodiments, the client identifier component 1704 may process identifiers that are dynamically updated based on changes in the client device's network connectivity or location attributes.

[0084] The verification output component 1706 may be configured as or otherwise support a means for generating, based on the received identifiers, a verification output. In some embodiments, the verification output component 1706 may generate a verification output that includes a status indicator, such as a pass or fail designation, based on the integrity of the received identifiers. The verification output component 1706 may determine whether the identifiers meet predefined security criteria, such as matching a system-assigned instance ID with a client identifier. In some embodiments, the verification output component 1706 may generate a verification output that incorporates metadata, such as timestamp information or network attributes, to reflect the context of the verification process. The verification output component 1706 may generate outputs in various formats, such as encrypted data packets or structured JSON objects, to align with downstream processing requirements.

[0085] The access protocol component 1708 may be configured as or otherwise support a means for generating an access protocol based at least in part on the verification output. In some embodiments, the access protocol component 1708 may determine access protocols that incorporate encryption layers tailored to the security attributes of the verification output. The access protocol component 1708 may generate access protocols that include session-specific tokens, which may be dynamically updated based on changes in the client device's connectivity status. In some embodiments, the access protocol component 1708 may generate access protocols that include multi-factor authentication requirements, such as biometric verification or secure PIN entry. The access protocol component 1708 may determine access protocols that align withDocket No: 0053-701.600INTERNATIONAL APPLICATION predefined security policies, which may vary based on the type of client device or network attributes.

[0086] The security protocol component 1710 may be configured as or otherwise support a means for applying a security protocol to the access protocol, the security protocol may include at least one of: cookie-based protection, encryption protection, and biometric protection. In some embodiments, the security protocol component 1710 may determine cookie-based protection parameters that include session-specific identifiers to track user interactions. The security protocol component 1710 may apply encryption protection that incorporates Advanced Encryption Standard (AES) algorithms to secure transmitted data. In some embodiments, the security protocol component 1710 may apply biometric protection that includes facial recognition or fingerprint scanning to authenticate user identity. The security protocol component 1710 may determine security protocols that adapt dynamically based on changes in the client device's network connectivity or geographic location.

[0087] The encrypted data packet component 1712 may be configured as or otherwise support a means for generating an encrypted data packet comprising the applied security protocol and at least one of: the keyword identifier, the client identifier, and the subscriber mobile number. In some embodiments, the encrypted data packet component 1712 may determine encryption parameters based on the type of security protocol applied, such as AES-256 for high-security requirements. The encrypted data packet component 1712 may include metadata, such as timestamp information or session identifiers, to track the context of the encrypted data packet. In some embodiments, the encrypted data packet component 1712 may generate packets that incorporate additional identifiers, such as system-assigned instance IDs or device-specific attributes, to enhance the specificity of the encrypted data.

[0088] The client device transmission component 1714 may be configured as or otherwise support a means for transmitting the encrypted data packet for use in verifying the client device through the silent network automated protocol. In some embodiments, the client device transmission component 1714 may transmit the encrypted data packet through a secure API endpoint that supports mutual TLS authentication. In some embodiments, the client device transmission component 1714 may determine transmission parameters based on the client device's network type, such as cellular or Wi-Fi, to align with security requirements. In some embodiments, theDocket No: 0053-701.600INTERNATIONAL APPLICATION client device transmission component 1714 may transmit the encrypted data packet in a format compatible with third-party security verification services, such as JSON or XML.

[0089] In some embodiments, the session-specific identifier component 1716 may be configured as or otherwise support a means for generating a session-specific identifier by combining the received identifiers with a timestamp and a device-specific attribute to uniquely associate the encrypted data packet with a single verification session. In some embodiments, the session-specific identifier component 1716 may determine the timestamp based on the client device's local clock settings to reflect the precise moment of session initialization. In some embodiments, the sessionspecific identifier component 1716 may determine the device-specific attribute by extracting hardware identifiers, such as a MAC address or IMEI number, to enhance the specificity of the session-specific identifier.

[0090] In some embodiments, the multi-layered encryption component 1718 may be configured as or otherwise support a means for applying a multi-layered encryption protocol to the encrypted data packet, the multi-layered encryption protocol may include a first layer for transport security and a second layer for data integrity verification. In some embodiments, the multi-layered encryption component 1718 may determine transport security parameters based on the client device's network type, such as cellular or Wi-Fi, to align with encryption requirements. In some embodiments, the multi-layered encryption component 1718 may apply transport security protocols that include mutual TLS authentication to secure the communication channel. In some embodiments, the multi-layered encryption component 1718 may determine data integrity verification parameters by incorporating cryptographic hash functions, such as SHA-256, to validate the integrity of the encrypted data packet. In some embodiments, the multi-layered encryption component 1718 may apply data integrity verification protocols that include digital signatures to authenticate the source of the encrypted data packet.

[0091] In some embodiments, the dynamic expiration component 1720 may be configured as or otherwise support a means for embedding a dynamic expiration parameter within the encrypted data packet to restrict the validity of the access protocol to a predefined time interval. In some embodiments, the dynamic expiration component 1720 may determine the predefined time interval based on the client device's session duration to align with security policies. In some embodiments, the dynamic expiration component 1720 may embed metadata, such as a timestamp or session identifier, within the encrypted data packet to track the expiration context.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0092] In some embodiments, the biometric hash component 1722 may be configured as or otherwise support a means for incorporating a biometric hash into the security protocol, the biometric hash may be derived from a fingerprint scan or facial recognition data associated with the client device. In some embodiments, the biometric hash component 1722 may determine the biometric hash based on a combination of multiple biometric inputs, such as a voiceprint and an iris scan, to enhance specificity. In some embodiments, the biometric hash component 1722 may process the biometric data through a cryptographic algorithm, such as SHA-256, to generate a unique hash that aligns with predefined security parameters. In some embodiments, the biometric hash component 1722 may store the biometric hash temporarily in a secure enclave within the client device to restrict unauthorized access during the verification process.

[0093] In some embodiments, the third-party validation component 1724 may be configured as or otherwise support a means for transmitting the encrypted data packet to a third-party security service for additional validation of the applied security protocol prior to verifying the client device through the silent network automated protocol. In some embodiments, the third-party validation component 1724 may transmit the encrypted data packet through a secure API endpoint that supports mutual TLS authentication to ensure secure communication. In some embodiments, the third-party validation component 1724 may determine transmission parameters based on the geographic location of the client device to align with regional security requirements.

[0094] In some embodiments, the third-party validation component 1724 may transmit the encrypted data packet in a format compatible with third-party security services, such as JSON or XML, to support interoperability. In some embodiments, the third-party validation component 1724 may determine the validation criteria based on the type of security protocol applied, such as cookie-based protection or biometric protection, to ensure compatibility with the third-party service. In some embodiments, the third-party validation component 1724 may include metadata, such as timestamp information or session identifiers, within the encrypted data packet to support contextual validation by the third-party security service.

[0095] FIG. 8 is a flowchart illustrating a process 1400 for automated messaging distribution for a client computing device. The operations of the process 1400 may be implemented by one or more components of a networked computing system such as system, 10 and / or the AMDA (Automated Messaging Distribution Array) system 1000 described in FIG. 10 herein, including the ML / AlDocket No: 0053-701.600INTERNATIONAL APPLICATION enabled decision cluster 1000a, AMDA recipient vault 1000b, and automated scheduler & distribution hub lOOOe.

[0096] At block 1402, the process 1400 includes receiving user data corresponding to a plurality of users and campaign parameters associated with a messaging campaign. The user data may include at least one of: historical engagement data, demographic information, behavioral activity data, location data, and user preferences. This corresponds to the data ingestion functionality of the ML / Al enabled decision cluster 1000a, which processes history, location, asset categories, click-through rates, dates and times of engagement, personnel experience history, and psychographic use characteristics, as described in FIG. 10.

[0097] At block 1404, the process 1400 includes classifying the plurality of users into two or more categories based at least in part on the user data. In some embodiments, the classifying is performed by a machine learning model trained to predict a likelihood of user engagement. This classification process mirrors the functionality of ML / Al enabled decision cluster 1000a that organizes users into the AMDA user vault tiers 1000b, including Tier 1 buyers lOOObl , Tier 2 link clickers 1000b2, Tier 3 bulk sends 1000b3, and Tier 4 tertiary sends 1000b4.

[0098] At block 1406, the process 1400 includes assigning a first category of users in the plurality of users to a just-in-time messaging process configured to determine a delivery time for messages based on user characteristics. The just-in-time messaging process may select delivery times based on contextual information including at least one of: an obtained user location, obtained recent activity, or obtained client device status. This corresponds to the automated just-in-time messaging array 1000c described in FIG. 10, which typically receives Tier 1 buyers lOOObl and Tier 2 link clickers 1000b2.

[0099] At block 1408, the process 1400 includes assigning a second category of users in the plurality of users to a bulk messaging process configured to deliver messages according to a predefined schedule. The bulk messaging process may be configured to schedule messages during predefined windows or blackout periods associated with regulatory or campaign rules. This corresponds to the automated bulk messaging array lOOOd described in FIG. 10, which processes Tier 3 bulk sends 1000b3 and Tier 4 tertiary sends 1000b4.

[0100] At block 1410, the process 1400 includes providing outputs of the just-in-time messaging process and the bulk messaging process to a messaging scheduler and distribution hub. This step corresponds to the automated scheduler & distribution hub lOOOe shown in FIG. 10,Docket No: 0053-701.600INTERNATIONAL APPLICATION which receives inputs from both the automated just-in-time messaging array 1000c and automated bulk messaging array lOOOd.

[0101] At block 1412, the process 1400 includes causing, by the distribution hub and to a plurality of client devices associated with the user data, distribution of a campaign message corresponding to the messaging campaign across a plurality of communication channels according to the messaging scheduler. The plurality of messaging channels may include: short message service (SMS), multimedia messaging service (MMS), rich communication services (RCS), over- the-top (OTT) messaging, and social media platforms, corresponding to the SMS / MMS / RCS lOOOel, OTT systems 1000e2, social channels 1000e3, and web hooks 1000e4 outputs shown in FIG. 10 and / or push notifications. The campaign message may be in an interactive message format including at least one of: one or more carousels, one or more selectable buttons, and one or more embedded shopping cart elements.

[0102] The process 1400 may further include monitoring user responses to the campaign message and dynamically updating the classification of users into categories based on observed engagement. This feedback loop ensures continuous optimization of the user classification system and may involve updating the ML / AI models within decision cluster 1000a based on real-time engagement data.

[0103] The operations of blocks 1402-1412 may be performed in accordance with the AMDA system architecture described in FIG. 10, leveraging the machine learning capabilities and tiered user classification to optimize message delivery timing and channel selection for maximum engagement and compliance with regulatory requirements.SILENT NETWORK AUTHENTICATION

[0104] FIG. 9 is a block diagram illustrating an example of an automated smart network authentication security and access control system 900 in accordance with an embodiment of the present disclosure. The system 900 may assess client device (e.g., electronic device 110-1) credentials and provide access, for the client device, to a security layer (e.g., silent network authentication protocol (SNAP) (e.g., access and security automation layer 1100).

[0105] For example, a client device 110-1 or an automated process may access system 900 to initiate messaging and / or communication channel campaigns. In particular a client dashboard 902 client and / or sub-client administrative panel 904 can gain operational access to messageDocket No: 0053-701.600INTERNATIONAL APPLICATION creation engine 906, and / or enable sub-client administrative panel 904 to gain operational access to message creation engine 906, to undertake communications and / or messaging campaigns to subclient user vault, which obtains user information through system user funnels that are stored in sub-client user vault 908. In general, sub-client assets 912 may be system-warehoused and accessible through client assets aggregator API 910 by way of connection to sub-client asset aggregator 914 and / or system asset compiler 916, which may enable sub-client assets 912 to surface within either 902 client dashboard and / or sub-client administrative panel 904 for inclusion to communications and / or messaging campaigns compiled within message creation engine 906. Such communications and / or messaging campaigns may be generated as navigable HTML web flows within decision delivery processor 918, and queued to machine learning / Al enabled decision engine 1000a within Automated Messaging Distribution Array (AMD A) generator 1000 (FIG. 10) via 201 automated / manual message campaign trigger to sub-client user vault 908 users; or, any one or more sub-client user vault 908 users associated with algorithmically defined consumer behavior data, described elsewhere herein and located in sub-client user vault 908. Settings for the automated / manual message campaign trigger 922 can be established in either of client dashboard 902 and / or sub-client administrative panel 904 to manually or automatically compile messages, in either instance with or without sub-client assets 912, to be combined with users (e.g., user data previously stored at secure financial environment generator 924) in preparation for generating an encoded and compiled short link 926 to render security software code processor engine security features via the access and security automation layer 1100 (FIG. 11), for example, and / or other system attributes into the compiled and encoded short link 926 and / or engagement method, delivering short link 926 and / or engagement method to ADDP 410 where each compiled short link 926 and / or engagement method attributes are stored, thereafter enabling system 900 to continue to AMDA system 1000 for message delivery characteristics to be generated, as described elsewhere herein.AUTOMATED MESSAGING DISTRIBUTION

[0106] FIG. 10 is a drawing illustrating an example of the automated messaging distribution array (AMDA) system 1000, in accordance with an embodiment of the present disclosure. In general, the AMDA system 1000 may utilize a messaging subscription and distribution system (e.g., hub lOOOe) that automates the process of sending messages acrossDocket No: 0053-701.600INTERNATIONAL APPLICATION various channels, to ensure efficient and timely delivery of messages to users. The AMDA system 1000 may utilize algorithms, rules, and and / or ML / Al to manage the timely distribution targeting a particular audience at a particular calculated time and may do so according to a particular geographic location of a user. The messages may include determined offers and / or opportunities and personalized messages based upon predefined criteria. Such messages may be generated and sent according to text messaging regulations, FCC, TCP A, or other communication regulations associated with contacting consumers.

[0107] The AMDA system 1000 may support a variety of messaging channels including at least SMS / MMS (e.g., text messages), Rich Communication Services (RCS) platforms, and Over-the-Top (OTT) platforms, push notifications, transmission of data through webhooks, etc.. Integrating such a combination of messaging channels allows for a broad reach across different communication and data distribution platforms, enhancing the ability to effectively target a user or audience. The AMDA system 1000 may leverage RCS capabilities to deliver high-resolution photos, videos, and / or audio messages. The AMDA system 1000 may also support real-time typing indicators, read receipts, and interactive elements such as buttons, radial dials, dropdowns, shopping carts, and carousel s / carousel menus. These features may provide a user with an engaging and interactive user experience compared to conventional SMS or email campaigns. The AMDA system 1000 may also utilize ML / AI technologies to ingest and analyze data, enabling personalized and targeted messaging campaigns as well as automated scheduling determination. This AMDA system 1000 can identify, match, compare, and organize user data into specific tiers based on engagement levels in order to determine appropriate and / or otherwise convenient message delivery. The AMDA system 1000 may generate and use automated just-in-time messaging distribution arrays to determine a convenient time to send messages to users based on user location, activities, and / or preferences. The arrays may ensure that messages are delivered at a time that may increase a likelihood of receiving engagement from the user. The AMDA system 1000 may be enabled to adhere to regulatory blackout periods and other compliance requirements (e.g., regulatory compliance, user permission compliance, user preferences compliances, etc.), which allows the AMDA system 1000 to be used and / or modified for business operating in multiple jurisdictions or in industries with specific regulatory frameworks.[00108J In AMDA 1000, ML / AI enabled decision cluster 1000a may ingest message campaign delivery characteristics defined in client dashboard 902 and / or sub-client administrativeDocket No: 0053-701.600INTERNATIONAL APPLICATION panel 904, as well as compiled and encoded short link details 926, and systematized campaign attributes captured in ADDP 410 (via decision delivery processor 918, for example) where prior user activities and related users personalized experiences including, but not limited to usage history, asset categories, click-through rates, timing engagement and psychographic use characteristics, etc. (collectively, —user use history—) may be stored and enabled to parse incoming individualized subscriber data with their individualized pre-existing user use history. Such storing and parsing may further enable ML / Al enabled decision cluster 1000a to identify, match, compare, and organize each recipient(s) of a specific message campaign being triggered from client dashboard 902 and / or sub-client administrative panel 904 into one of three user vault tiers of AMDA user vault 1000b, as shown by arrow 1002. The process of categorizing users may be iterative, as indicated by the two-sided arrow 1002. The AMDA user vault 1000b may include data from vault 908. The vault tiers may include tier 1 buyers lOOObl, tier 2 link clickers 1000b2, tier 3 bulk senders 1000b3 and tier 4 web-hook senders 1000b4. The tier 1 buyers lOOObl may be defined as those users who have previously engaged with compiled and encoded short links 926 and / or other engagement methods with system 900, for example, and completed the defined customer journey attributed within compiled and encoded short links 302 and / or other engagement method with any of an ecommerce purchase opportunity, registering within a registration opportunity, completing navigation through a defined navigation journey, etc. and as such, are queued for message delivery characteristics defined outside of tier 2 link-clickers 1000b2 and / or tier 3 bulk-send recipients 1000b3 or tier 4 web-hook send recipients 1000b4. Tier 2 link-clickers 1000b2 may be defined as users who have previously engaged with compiled and encoded short links 926 and / or other engagement method, but have not completed the intended ecommerce purchase opportunity, registration opportunity, and / or intended navigation journey, etc., and as such, are queued for message delivery characteristics defined outside of tier 1 buyers lOOObl and / or tier 3 bulk-send recipients 1000b3 and / or tier 4 web-hook send recipients 1000b4. Tier 3 bulk-send recipients 1000b3 may be defined as users that have not clicked through any of the received compiled and encoded short links 926 sent from one or more message campaigns initiated by client dashboard 902 and / or sub-client administrative panel 904, and as such may be queued for message delivery characteristics defined outside of tier 1 buyers lOOObl and / or tier 2 linkclickers 1000b2 or tier 4 web-hook send recipients 1000b4. Tier 4 web-hook send recipients 1000b4 may be defined as users that are not targeted through direct tier 1 buyer messaging 1000b 1 ,Docket No: 0053-701.600INTERNATIONAL APPLICATION tier 2 link-clicker messaging 1000b2, or tier 3 bulk-send messaging 1000b3, but instead are identified and queued for delivery via automated webhook triggers originating from external systems or integrated third-party applications. These webhook-driven sends may be event-based (e.g., purchase confirmations, shipment updates, appointment reminders, service alerts) and are typically delivered outside of the bulk campaign flow initiated by client dashboard 902 and / or subclient administrative panel 904. Accordingly, tier 4 web-hook send recipients 1000b4 may be segregated for handling under message delivery characteristics distinct from tier 1 buyers, tier 2 link-clickers, and tier 3 bulk recipients, reflecting their origin in external system integrations rather than internally compiled campaign lists.

[0109] Upon completion of defining tier 1 buyers lOOObl, tier 2 link-clickers 1000b2, tier 3 bulk-send recipients 1000b3, and tier 4 web-hook send recipients 1000b4 within AMDA user vault tiers 1000b, the AMDA system 1000 may designate lOOObl tier 1 buyers and 1000b2 tier 2 link clickers 1000c to an automated just-in-time messaging array 1000c. The AMDA system 1000 may use user use history characteristics to enable the generation and use of the automated just-in- time messaging array 1000c to determine when to send campaign messages to which users at what time of day in any of various geographic locations in a manner that includes defined characteristics and regulatory blackout periods relative to any given ecommerce purchase, registration opportunity, and / or defined navigation journey, etc. The characteristics, and regulatory blackout periods may be procured and compiled against use history associated with a user and varying personalized experiences captured and stored within ML / Al enabled decision cluster 1000a in an ongoing and continuously sequenced methodology. For example, the continuous sequencing may be performed to determine particular user location, user activities, and user preferences such that each user timely receives messages sent from automated just-in-time messaging array 1000c carrying compiled / encoded short links 926 of which unique variants identified, compiled, and attributed within ML / Al enabled decision cluster 1000a to such users to enable message campaign recipient(s) users to navigate through the personalized experience(s) the AMDA system 1000 has sent through the automated just-in-time messaging array 1000c. In parallel, tier 4 web-hook send recipients 1000b4 may be managed through webhook-triggered messaging flows, where message delivery is initiated by external system integrations or third-party applications and then ingested into the AMDA system 1000. Such webhook-triggered sends may still pass through ML / Al enabled decision cluster 1000a for sequencing, attribution, and compliance validation, but areDocket No: 0053-701.600INTERNATIONAL APPLICATION distinguished from tier 1 buyers, tier 2 link-clickers, and tier 3 bulk-send recipients in that their inclusion within automated messaging arrays is derived from event-driven external signals rather than campaign-originated targeting.

[0110] Correspondingly, tier 3 users 1000b3 that have not engaged with compiled / encoded short links 926 sent through various ongoing message campaigns may be designated by the AMD A system 1000 to automated bulk messaging array lOOOd, which possesses similar characteristics as automated just-in-time messaging array 1000c relative to regulatory blackout periods and other defined characteristics, resulting in message campaigns originating from the systems described herein to relevant tier 3 users 1000b3 of one or more specific campaign(s) message(s) being sent at the same time according to predefined time periods and other related system factors defined by ML / A1 enabled decision cluster 1000a.

[0111] The automated bulk messaging array lOOOd may provide an option for use with users less engaged in the overall system. For example, if a user has yet to engage in a particular message sent by the system described herein (i .e., a tier 3 user 1000b3, new users of the system 1000, etc.). The array lOOOd may be provided to allow for efficient management and distribution of messages to larger groups without having to individually customize the messages / content / campaigns. In addition, tier 4 web-hook send recipients 1000b4 may be routed through the automated bulk messaging array lOOOd in instances where webhook- triggered signals invoke delivery of generalized campaigns or notifications. Unlike tier 1 buyers lOOOb l and tier 2 link-clickers 1000b2, who are highly engaged and directed into the automated just-in-time messaging array 1000c, tier 4 webhook-triggered recipients 1000b4 may instead be aggregated and managed in conjunction with tier 3 bulk-send users 1000b3 when the initiating event does not necessitate personalized sequencing, but rather efficient, event-driven distribution across broader recipient groups.

[0112] Depending on which tier from vault 1000b3 outputs data, the automated just-in- time messaging array 1000c or the automated bulk messaging array lOOOd may provide data to the automated scheduler and distribution hub lOOOe. In addition, the ML / Al cluster 1000a may also provide input in decisions associated with the automated messaging scheduler and distribution hub lOOOe, as indicated by arrow 1004. Decisions may be iteratively made and / or information may be shared between hub lOOOe and ML / Al cluster 1000a as a basis in which to generate and send particular messages to users.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0113] For example, time-oriented characteristics related to tier 1 buyers lOOObl and tier 2 link-clickers 1000b2 may be defined based on decisions generated at ML / Al decision cluster 1000a, which may trigger automated scheduler and distribution hub lOOOe to define detailed aspects relating to each individually specific users queued in automated just-in-time messaging array 1000c, such that defined campaign messages are sent by cluster 1000a at specified times on a one-at-a-time and / or many-at-a-time segmentation basis to each individual user, vis a vis, just- in-time, whereafter the automated scheduler and distribution hub lOOOe may route system campaign message(s) to various distribution channels defined by ML / Al decision cluster 1000a. The distribution channels may include, but are not limited to SMS / MMS (e.g., text message channels), Rich Communication Services (RCS) channels lOOOel, Over-the-Top (OTT) messaging channels 1000e2 (e.g., WhatsApp®, Meta Messenger®, Viber®, etc.), and / or social networking channels 1000e3, such as social channels from Meta Platforms Inc., X Corp., Apple Inc., or the like, and / or push notifications. Users may receive messages on channels lOOOel, 1000e2, and / or 1000e3 based at least in part on which channel (and / or which application) a user engagement originated from. For example, if a tier 2 user engaged with link 926 using WhatsApp®, then the hub lOOOe may trigger any follow-on messages to be distributed to the user through the WhatsApp® application. Tier 4 web-hook recipients 1000b4 may likewise be funneled through automated scheduler and distribution hub lOOOe when webhook-triggered events dictate message sends, in which case the hub may route generalized or event-specific notifications to appropriate distribution channels through 1000e4 without having individualized sequencing. Other scenarios of messaging are possible and may include distribution of messages based at least in part on user preferences, user permissions, or other user-based parameters.

[0114] Correspondingly, time-oriented characteristics related to tier 3 automated bulk messaging array 1000b3 may be defined and / or otherwise influenced from decisions generated at ML / AI decision cluster 1000a, which may trigger automated scheduler and distribution hub lOOOe to schedule bulk campaign message sends at times specified by ML / AI decision cluster 1000a, whereafter automated scheduler and distribution hub lOOOe may route campaign message(s) to various distribution channels defined by ML / AI decision cluster 1000a, which can include SMS / MMS text message channels / RCS channels, and / or OTT messaging channels, as described elsewhere herein.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0115] Referring again to FIG. 9, the AMDA 1000 may use 3PP service provider API endpoint 920, which truncates system campaign messages to be delivered from client / sub-client program message campaign number 930 through various third party mobile carriers 932 that deliver campaign messages (e.g., Cl, C2, C3) to allocated users at user messaging recipient cell numbers 934 in just-in-time campaign message-send sequencing defined by ML / Al enabled decision cluster 1000a and executed by AMDA user vault 1000b through automated just-in-time messaging array 1000c and / or automated bulk messaging array lOOOd, according to the campaign message distribution schedule articulated through ML / Al enabled decision cluster 1000a. Tier 4 webhook recipients 1000b4 may also be routed through 3PP service provider API endpoint 920 when outbound messages are triggered by external system events or third-party integrations, ensuring that webhook-driven message delivery maintains parity with tier-based sequencing and regulatory timing controls. The campaign messages may be thereafter queued into, and carried out accordingly by automated messaging scheduler and distribution hub lOOOe (FIG. 10). At cellular phone messaging apps 936, users that received system messages at user messaging recipient cell numbers 934, the compiled and encoded short links 926 can be activated by users / campaign message recipients 938, which triggers opening of a customized UEMWEB loader 940 (and / or third party domain within a web browser) on users / campaign message recipient(s) cellular phone, which continues to silent network authentication protocol (SNAP) access and security automation layer 1100.

[0116] When compiled and encoded short link 926 is activated at message recipient link activation 938 by users / campaign message recipient(s), the customized UEMWEB loader 940 (and / or third party domain) triggers the SNAP access and security automation layer 1100 to activate security automation layer entry software code packet 1100a.ACCESS AND SECURITY AUTOMATION LAYER

[0117] FIG. 11 is a drawing illustrating an example access and security automation layer 1100, in accordance with an embodiment of the present disclosure. The layer 1100 may provide security for accessing content. The layer 1100 may use a SNA-based security automation layer, which assesses client device credentials and provides secure access. The layer 1100 may also utilize encoded and compiled short links (e.g., links 926) with security software code, enhancing the overall security of transmitted and accessed messaging campaigns.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0118] In general, the security of layer 1100 may be used alone or in conjunction with the security mechanisms described herein. In a nonlimiting example, the layer 1100 may provide a multi-stage security mechanism on a webpage, website, micro- web site, UEMWEB, or application which integrates existing security functionality together with biometric authentication, utilizing facial identification, fingerprint identification, or other biometric frameworks in conjunction with, or separately from Silent Network Authentication (SNA) (e.g., layer 1100) to provide security for user login (e.g., access) and transaction processes. Upon access attempt, for example, the layer 1100 may prompt a user for biometric verification to leverage the local authentication framework to ensure the requestor is the legitimate owner of the device requesting access. Concurrently, layer 1100 may use SNA to operate in the background, silently verifying the network credentials of the user device (e.g., phone number, SIM card identifier, etc.) without user interaction.

[0119] For example, layer 1100 may analyze one or more of a SIM card identifier or related information and may also analyze network usage patterns to confirm the identity of the user of the device requesting access. This dual-layered approach may ensure a seamless, convenient, and secure user experience, thereby reducing the risk of unauthorized access while protecting sensitive data. In a nonlimiting example, a user may receive an SMS marketing message on a mobile device and may select a link within the message to land on a product webpage. The user may select particular product variables and add an item to an online or application-specific shopping cart. The user may move to a checkout area and select an order / purchase control. The shopping cart / appli cation may prompt the user to execute biometrics, such as a face scan, fingerprint scan, etc. The shopping cart / application may perform the biometric confirmation (e.g., scan a face, scan a fingerprint, etc.) and may perform an SNA authentication process (as described elsewhere herein) in a background process (e.g., substantially simultaneously to the biometric confirmation, subsequent to the biometric confirmation, or prior to the biometric confirmation). If both the biometric confirmation and the SNA authentication produce valid identification checks for the user, then the transaction may execute to purchase the content of the shopping cart.

[0120] In another nonlimiting example, a user may receive an SMS marketing message on a mobile device and may select a link within the message to land on a product webpage. The user may select particular product variables and add an item to an online or application-specific shopping cart. The user may move to a checkout area and select an order / purchase control. In the event that the device being used to navigate the shopping cart / application does not includeDocket No: 0053-701.600INTERNATIONAL APPLICATION biometric capabilities, the biometric confirmation process can be skipped and the SNA authentication process may instead be substituted as the singular security check. If the SNA authentication produces a valid identification check for the user, then the transaction may execute to purchase the content of the shopping cart.

[0121] The layer 1100 includes security features within the AMDA system 1000. The security features may enhance the security of communications and the security of access control. The layer 1100 represents a SNA-based layer for authenticating devices and users (e.g., users, user devices, bots, companies, etc.) silently and securely, ensuring that access to the system 1000 associated data are both controlled and monitored without compromising user experience or system performance. The layer 1000 includes at least one authentication server for managing authentication requests and processes. The at least one authentication server may store and handles security credentials and policies. Client devices may each have a unique identifier and associated credentials. In some embodiments, the unique identifier is an identifier associated with a SIM card. The layer 1000 may utilize one or more security tokens (e.g., JWT - JSON web tokens) that encapsulate the identity and credentials of the client device. These tokens may be encrypted and can be decrypted by the at least one authentication server. The layer 1000 utilizes encryption algorithms (e.g., Advanced Encryption Standard (AES), Rivest-Shamir-Adleman (RSA), etc.) to secure the tokens and data transmitted between the client devices and the at least one authentication server. The layer 1000 may include any number of API endpoints providing secure points of communication between the client devices and the authentication server, through which authentication requests and responses may be sent.

[0122] In a non-limiting example, the layer 1000 may receive an access request from the AMDA system 400 from a client device (e.g., a mobile phone device, a table device, etc.). The layer 1000 may generate and send a request to an authentication server to obtain a security token. This request may include the device credentials and unique device identifier (e.g., SIM card identifier). The authentication server may attempt to verify the device credentials and proceed to verify a security token if the credentials are verified. The token may include a device identity (e.g., SIM card, phone number, etc.) and particular session data. The token may also be encrypted using a secure encryption algorithm to deter tampering or forgery. The encrypted token may be transmitted back to the device via a secure API endpoint, for example, and the client device may use the token for subsequent requests to review links, make purchases, shop online, etc. Each timeDocket No: 0053-701.600INTERNATIONAL APPLICATION the client device generates and sends a request to the AMDA system, the encrypted token may be included with the request. The authentication server may decrypt the token, validate the taken and grant or deny access to the links, purchases, shopping activities, etc. based on the determined validity of the token and / or based on permissions assigned to the token. The SNAP layer 1100 may manage sessions by setting expiration times on the tokens and monitoring session activities. The usage or detection of an expired token may trigger reauthentication to ensure access is securely controlled.

[0123] In some embodiments, the layer 1100a may perform SNA authentication by calculating, interpreting, and compiling particular data asset identifiers relative to the user messaging recipient cellular number(s) 934 and other variables, encryption, etc. In operation, the layer 1100a may pass a security software code packet 1100b through security software code API endpoint / webhook 1000c to third party authentication services provider API endpoint HOOd, which enables third party authentication services provider validation layer HOOe to identify 503 user messaging recipient cellular number(s) 934 and other variables such as encryption specifics that enable system truncation to the appropriate third party mobile carrier network 932 to execute a cellular carrier SNAP HOOf to establish a pass or fail status, where if carrier SNAP responds back a PASS at 1100g then third party authentication services provider validation layer 1 lOOi may pass the passing status through third party authentication services provider API endpoint 1 lOOd to security software code API endpoint / webhook 1100c, delivering a passing status to security automation layer exit software code packet l lOOj and / or third party authorization, where users / campaign message recipient s) customized UEMWEB loader 940 and / or third party domain journey is enabled with the specific augmented access and unique navigation attributes made available from SNAP access and security automation layer 1100. However, if cellular carrier SNAP HOOf responds back a FAIL HOOh, then the third party authentication services provider validation layer 1 lOOi passes the failing status through third party authentication services provider API endpoint 1 lOOd to security software code API endpoint 1100c, which may deliver the failing status to the security automation layer exit software code packet l lOOj and / or third party authorization where users / campaign message recipient(s) customized UEMWEB loader 940 and / or third party domain j ourney is not enabled with the specific augmented access and unique navigation attributes made available from the SNAP access and security automation layer 1100. Next, the flow may continue to the automated security verification hub 1200 (FIG. 12).Docket No: 0053-701.600INTERNATIONAL APPLICATIONAUTOMATED SECURITY VERIFICATION HUB

[0124] FIG. 12 is a drawing illustrating an example of an automated security verification hub 1200, in accordance with an embodiment of the present disclosure. In operation, data and / or messages may be received from the SNAP layer 1100 (FIG. 11) including PASS and / or a FAIL indication / statuses 1100g, HOOh at a SNAP security verification channel selector 1201. The selector 1201 may distribute the PASS / FAIL through one of at least three pathways including a third party security verification services API 1202, a first alternative verification channel 1204, and a second alternative verification channel 1206. If a PASS status is received, the data and / or messages may be provided to a SNAP verification automation layer 1208 within SNAP verification layer 1308 (occurring within an HTML experience). If a FAIL status is received, the data and / or messages may be provided to the layer 1208 using either channel 1204 or channel 1206 to allow for different security screening. For channel 1204, a first alternate verification may occur using external verification system, as shown by alternate destination 1210. Similarly, a second alternate verification may occur using external verification system, as shown by alternate destination 1212. Similar data or output from destinations 1210, 1212 may also be provided to SNAP layer 1208 to continue a cellular data-based authentication process using third party cellular service 1214, third party cellular service 1216, and / or third party cellular service 1218. In addition, or instead, external security authentication can be performed using external security 1220 and / or external security 1222. For example, a security verification process / type can be selected for external security 1220 and / or external security 1222 including one or more, or any combination of system access code security sent using SMS and / or MMS, biometric security, password or PIN code based security, or the like.

[0125] The SNAP verification automation layer 1208 may determine which type of security verification is to be used. For example, a security verification process / type can be selected amongst one or more, or any combination of SNAP security, system access code security sent using SMS and / or MMS, biometric security, password or PIN code based security, or the like, where after determining a security type, the system verification automation layer 1208 may truncate a system pathway into 3PP cellular carrier service 1214, cellular carrier service 1216, and / or cellular carrier service 1218, and / or to external security 1220 and / or external security 1222, etc. to gain access to system security and / or access gateway 1250, which can distribute data and / orDocket No: 0053-701.600INTERNATIONAL APPLICATION messages to and / or from external access ports 1250a, 1250b and so on, or directly to internal access ports 1300 (FIG. 13) where users / campaign message recipient(s) receiving PASS status 1100g or FAIL status 11 OOh may pass through system recipient user experience, navigation, and / or purchase journey resulting from an unpacked compiled and encoded short link 926 at carrier / noncarrier access port 1300. In some embodiments, access may be received from external security 1220 at access block 1250a and / or received from external security 1222 at access block 1250b.SECURITY / ACCESS PROTOCOL SELECTION[00126J FIG. 13 is a drawing illustrating an example flow diagram representing selection of a first security protocol or a second security protocol, in accordance with an embodiment of the present disclosure. The carrier / noncarrier access port 1300 may receive data, messages, and / or approval / authentication from security and / or access gateway 1250 (FIG. 12). In general, the carrier / noncarrier access port 1300 may direct a navigation journey of user vault (e.g., block 908)users / campaign message recipient(s) flagged with a PASS status 1100g through the cellular path, which executes SNAP security within navigation pages 1304 for a user journey by user engagement activation command 1306 being triggered. Triggering command 1306 may trigger SNAP verification automation layer 1208 to process a navigation request through a secure financial environment generator (SFEG) security protocol 1310 to interoperate through third party verification services API 1312 (associated with third party authentication services provider API endpoint HOOd in FIG. 11) and 3PP cellular carrier verification 1313 to enable the SNAP verification channel selector 1201 to back-test and confirm a PASS status 1100g to enable access, verification, and / or payment processing block 1314, and / or one-touch e-commerce payment, etc. to users / campaign message recipient(s) having received a PASS status 1100g, triggering 904 system and / or third party card vault 1316 to access payment and content to be purchased, for example, allowing users / campaign message recipient(s) having received the PASS status 1100g to complete a user experience, navigation, and / or purchase journey, as indicated by user engagement completed block 1318.[00127J The carrier / noncarrier access port 1300 may instead direct a navigation journey of users / campaign message recipient(s) flagged with a FAIL status 1 lOOh through a second security protocol that is a non-cellular security / access check. For example, users flagged with a FAIL statusDocket No: 0053-701.600INTERNATIONAL APPLICATION1 lOOh may be directed to an external security / access check and / or an internal, non-cellular security path at block 1326. A non-cellular security path includes performing security and / or access assessments without the use of cellular data, and instead utilizes local data on the mobile device and / or Bluetooth and / or Wi-Fi data to perform security and access operations. The block 1326 may pass the FAIL status and any user data to particular navigation / application pages for user journey 1328 resulting from an unpacked compiled and encoded short link 1326, which directs the navigation journey of users / campaign message recipient(s) flagged as FAIL status HOOh to request information from the user including user information capture certificate 1330 and thereafter activates user engagement activation command 1332, which triggers a secure financial environment generator 1334 to execute alternative security protocol(s) through security verification hub 1200 (FIG. 12), triggering the formation and delivery of an access code, PIN code, keyword, or the like. For example, the hub 1200 may generate a secure access code using secure access code generator at an external verification system, as shown by alternate destination 1212 and / or alternate destination 1210 and / or other security checkpoint and send a message with such a code to be delivered by SMS, MMS, RCS, and / or other delivery mode to users / campaign message recipient(s) receiving a FAIL status HOOh. The message may request that the user input the provided code in an input field 1336 (or the like), which may trigger access, verification, and / or payment processing block 1338 to retrieve payment credentials from system 900 and / or third party card vault 1340 to enable completion of users / campaign message recipient s) (having a FAIL status HOOh) of a user experience, navigation, and / or purchase journey, as shown by user engagement completed block 1342.

[0128] In some embodiments, the first security protocol using cellular path SNA security of block 1302 may be performed and the second security protocol using non-cellular / online data of block 1326 may also or instead be performed in cases in which the first security protocol fails to allow access or security authorization for a user of a mobile / client device. If the user can gain access and / or security authorization through cellular data use in block 1302 (e.g., the first security protocol), then the user may avoid having to utilize the non-cellular (e.g., second security protocol) starting at block 1326. This may provide a benefit (to the user) of faster authentication to allow access, purchases, and / or other action that utilizes security checks and a benefit of allowing the user to avoid additional data messaging and / or data input steps.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0129] In some embodiments, the messaging systems described herein may be used to generate and securely send and receive messages for individuals, businesses, and / or enterprises within online (or offline) spreadsheet applications, document applications, storage servers and / or applications, workspace applications, form generators, videoconferencing applications, calendars, websites, or the like. Similarly, the security protocols described herein may also be used in combination with any of the following use cases.INDIVIDUAL USE CASES

[0130] In some embodiments, the messaging systems described herein may be used to generate personalized travel itineraries. For example, the AMDA 1000 may automatically generate and send messages (e.g., a SMS, MMS, RCS, push notification or similar) that includes daily schedule information from online calendar applications, linked to travel plans in one or more applications associated with a user. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0131] In some embodiments, the messaging systems described herein may be used to facilitate automated fitness challenges. For example, the AMDA 1000 may automatically receive goal data entered into one or more online applications associated with a user. The system may then generate and transmit messages (e.g., a SMS, MMS, RCS, push notification or similar) to the user, reminding them to update their fitness progress, thereby maintaining accountability and structured tracking of performance over time. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0132] In some embodiments, the messaging systems described herein may be used to provide dynamic recipe recommendations. For example, an online reading application may track a user’s listed or available ingredients, and the AMDA layer 1000 may messages (e.g., a SMS, MMS, RCS, push notification or similar) that deliver daily recipe suggestions tailored to those ingredients, enabling efficient meal planning and utilization of household supplies. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0133] In some embodiments, the messaging systems described herein may be used to generate personalized study timetables. For example, online calendar applications may be synchronized with study session data, and the AMDA 1000 may send message (e.g., a SMS, MMS,Docket No: 0053-701.600INTERNATIONAL APPLICATIONRCS, push notification or similar) reminders of upcoming sessions, with embedded links to online documents containing study notes or assignments relevant to the user’s coursework. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0134] In some embodiments, the messaging systems described herein may be used to deliver daily gratitude prompts. For example, the AMDA 1000 may automatically generate messages (e.g., a SMS, MMS, RCS, push notification or similar) encouraging the user to record entries in a gratitude journal maintained within an online application, thereby promoting mindfulness and positive daily reflection. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.[00135J In some embodiments, the messaging systems described herein may be used to transmit project inspiration alerts. For example, the AMDA 1000 may send messages (e.g., a SMS, MMS, RCS, push notification or similar) containing creative prompts or project ideas, which may be linked to online documents curated to match the user’s identified interests, thereby stimulating ideation and project development. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0136] In some embodiments, the messaging systems described herein may be used to provide wellness check-ins. For example, online calendar applications may schedule wellness reminders, and the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) prompting the user to log daily feelings or responses through online form applications, thereby supporting mental health tracking and self-awareness practices. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0137] In some embodiments, the messaging systems described herein may be used to deliver event countdown notifications. For example, the AMDA 1000 may send messages (e.g., a SMS, MMS, RCS, push notification or similar) that provide countdowns to personal events, with embedded links to planning documents maintained in online storage applications or shared locations, ensuring the user remains informed and prepared for upcoming activities. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0138] In some embodiments, the messaging systems described herein may be used to provide daily language learning tips. For example, the AMDA 1000 may send messages (e.g., a SMS, MMS, RCS, push notification or similar) containing vocabulary words or grammar notes, integrated with links to online documents or other language learning resources, thereby reinforcing educational objectives. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0139] In some embodiments, the messaging systems described herein may be used for weekly goal setting. For example, online applications may be used to define and track weekly goals, and the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) prompting the user to review and update progress. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0140] In some embodiments, the messaging systems described herein may be used to transmit inspirational quotes. For example, the AMDA 1000 may send messages (e.g., a SMS, MMS, RCS, push notification or similar) containing daily quotes sourced from digital versions of the user’s favorite books stored within online applications, thereby promoting daily motivation and reflection. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0141] In some embodiments, the messaging systems described herein may be used to provide mindfulness reminders. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) reminding the user to pause and reflect, with embedded links to guided meditation exercises or relaxation content stored within online documents. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0142] In some embodiments, the messaging systems described herein may be used to track reading lists. For example, the AMDA 1000 may send message (e.g., a SMS, MMS, RCS, push notification or similar) reminders encouraging the user to finish books on an online reading list, with links to associated summaries or notes in online documents, thereby promoting consistent engagement with reading goals. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0143] In some embodiments, the messaging systems described herein may be used to deliver creative writing prompts. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) containing a daily writing prompt, linked to a shared online document where a writing group can collaboratively add and review responses. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0144] In some embodiments, the messaging systems described herein may be used to facilitate cooking challenges. For example, users may set up challenge rules in online applications, and the AMDA 1000 may send message (e.g., a SMS, MMS, RCS, push notification or similar) reminders prompting the user to try new recipes, thereby enabling collaborative and goal-driven culinary activities. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0145] In some embodiments, the messaging systems described herein may be used to schedule pet care routines. For example, online calendar applications may be configured to track veterinary appointments, feeding schedules, and other pet care needs, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders for these activities, ensuring consistent and timely pet care. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0146] In some embodiments, the messaging systems described herein may be used to provide budget alerts. For example, online applications may be used to define and monitor household or personal budgetary limits, and the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) notifying the user when spending approaches or exceeds predetermined thresholds, thereby promoting responsible financial management. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0147] In some embodiments, the messaging systems described herein may be used to provide daily journal prompts. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) containing a daily prompt, with embedded links to an online document serving as the user’s journal, thereby enabling consistent reflective writingDocket No: 0053-701.600INTERNATIONAL APPLICATION practices. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0148] In some embodiments, the messaging systems described herein may be used to schedule music practice. For example, online calendar applications may be configured with practice sessions, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders, which may include links to sheet music or instructional resources stored within online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0149] In some embodiments, the messaging systems described herein may be used to facilitate home improvement planning. For example, online applications may be used to define and track home project tasks, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders prompting the user to update progress, thereby maintaining visibility and accountability over ongoing projects. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.BUSINESS USE CASES

[0150] In some embodiments, the messaging systems described herein may be used to provide client meeting reminders. For example, online calendar applications may be configured with upcoming client meetings, and the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) that include reminders and links to relevant planning documents stored within online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0151] In some embodiments, the messaging systems described herein may be used to deliver task assignment notifications. For example, tasks may be created and assigned within online task management applications, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications to inform team members of new or updated assignments. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0152] In some embodiments, the messaging systems described herein may be used to transmit inventory management alerts. For example, inventory levels tracked in online applications may be monitored, and the AMD A 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts when stock approaches predefined reorder thresholds. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0153] In some embodiments, the messaging systems described herein may be used to facilitate customer feedback collection. For example, online form applications may be configured to receive customer survey responses, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) prompts inviting customers to complete feedback surveys. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0154] In some embodiments, the messaging systems described herein may be used to coordinate product launch activities. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders for product launch tasks, with embedded links to planning documents maintained within online document repositories. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0155] In some embodiments, the messaging systems described herein may be used to provide employee training reminders. For example, training sessions may be scheduled within online calendar applications, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders that include links to training resources stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0156] In some embodiments, the messaging systems described herein may be used to notify users of weekly sales reports. For example, when weekly sales data are compiled in online spreadsheet applications, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) indicating report availability and linking to the underlying materials. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0157] In some embodiments, the messaging systems described herein may be used to provide customer support alerts. For example, online form applications may track support tickets, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts for high-priority issues. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0158] In some embodiments, the messaging systems described herein may be used to transmit marketing campaign updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) describing campaign progress, with links to tracking sheets or dashboards stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0159] In some embodiments, the messaging systems described herein may be used to deliver expense approval notifications. For example, when expense reports, prepared within online applications, require approval, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts that include links to the relevant approval materials. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0160] In some embodiments, the messaging systems described herein may be used to track event RSVPs. For example, online applications may capture responses from invitees, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders to invitees who have not yet responded. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0161] In some embodiments, the messaging systems described herein may be used to distribute meeting agendas. For example, agendas may be prepared in online applications, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) in advance of a meeting, with a link to the agenda document for participant review. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0162] In some embodiments, the messaging systems described herein may be used to provide team collaboration reminders. For example, the AMDA 1000 may generate message (e.g.,Docket No: 0053-701.600INTERNATIONAL APPLICATION a SMS, MMS, RCS, push notification or similar) reminders to update shared documents in online storage applications or shared locations prior to deadlines. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0163] In some embodiments, the messaging systems described herein may be used to generate sales target alerts. For example, sales targets tracked within online applications may be monitored, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifying users when goal attainment is approaching or has been achieved. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.[00164J In some embodiments, the messaging systems described herein may be used to manage client proposal deadlines. For example, proposal milestones may be scheduled in online applications, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders to relevant team members ahead of due dates. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0165] In some embodiments, the messaging systems described herein may be used to recognize employee milestones. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications for employee anniversaries or achievements, with links to an online document describing celebration plans. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0166] In some embodiments, the messaging systems described herein may be used to provide product review reminders. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) prompts to customers requesting that they submit product reviews via online form applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0167] In some embodiments, the messaging systems described herein may be used to announce new product releases. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) updates regarding new products, with links toDocket No: 0053-701.600INTERNATIONAL APPLICATION detailed information stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0168] In some embodiments, the messaging systems described herein may be used to distribute HR policy updates. For example, when HR documents are revised within online applications, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications that link to the current version for employee review. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0169] In some embodiments, the messaging systems described herein may be used to facilitate weekly team check-ins. For example, online applications may schedule recurring team meetings, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders that include links to meeting notes maintained in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.ENTERPRISE USE CASES

[0170] In some embodiments, the messaging systems described herein may be used to provide global crisis management alerts. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications during global crises, with embedded links to detailed action plans stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0171] In some embodiments, the messaging systems described herein may be used to distribute executive briefing summaries. For example, when new executive summaries are prepared in online applications, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications containing links to the summary materials. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0172] In some embodiments, the messaging systems described herein may be used to facilitate cross-departmental coordination. For example, the AMDA 1000 may generate messageDocket No: 0053-701.600INTERNATIONAL APPLICATION(e.g., a SMS, MMS, RCS, push notification or similar) reminders for scheduled cross-departmental meetings, with links to shared documents maintained in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0173] In some embodiments, the messaging systems described herein may be used to provide compliance monitoring alerts. For example, compliance deadlines may be tracked in online applications, and the AMDA 1000 may generate message (e g., a SMS, MMS, RCS, push notification or similar) notifications when deadlines are approaching. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.[00174J In some embodiments, the messaging systems described herein may be used to distribute corporate announcements. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) containing updates regarding corporate matters, with embedded links to detailed documents stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0175] In some embodiments, the messaging systems described herein may be used to support strategic planning sessions. For example, online applications may be configured to schedule strategic meetings, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders that include links to planning documents. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0176] In some embodiments, the messaging systems described herein may be used to track merger and acquisition (M&A) projects. For example, online applications may be employed to monitor project milestones, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) updates to relevant stakeholders. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0177] In some embodiments, the messaging systems described herein may be used to provide security breach notifications. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts when a breach event occurs, with links toDocket No: 0053-701.600INTERNATIONAL APPLICATION incident details stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0178] In some embodiments, the messaging systems described herein may be used to coordinate global teams. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders for meetings across time zones, linked to online calendar applications for scheduling and synchronization. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0179] In some embodiments, the messaging systems described herein may be used to manage vendor contracts. For example, online applications may track contract details and expiration dates, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts when renewals are approaching. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0180] In some embodiments, the messaging systems described herein may be used to support employee onboarding. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) describing onboarding steps, with links to resources stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0181] In some embodiments, the messaging systems described herein may be used to schedule annual performance reviews. For example, online applications may be configured with review appointments, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders sent to managers. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0182] In some embodiments, the messaging systems described herein may be used to transmit executive task force updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications with links to documents maintained in online storage applications or shared locations. A security check, as described elsewhere herein,Docket No: 0053-701.600INTERNATIONAL APPLICATION may be performed before the message is generated and sent, after the message has been sent, or both.

[0183] In some embodiments, the messaging systems described herein may be used to provide regulatory compliance updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications regarding regulatory changes, with links to tracking spreadsheets. In certain implementations, compliance records may be secured through the Smart Nexus Authentication Protocol, with an adaptive security sequence, ensuring restricted access to compliance officers or designated personnel only. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.[00184J In some embodiments, the messaging systems described herein may be used to enable C-suite communication. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) for senior executives, with embedded links to strategic documents maintained in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0185] In some embodiments, the messaging systems described herein may be used to provide data breach response plans. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts during a data breach, with links to incident response documents in online applications for rapid execution of response procedures. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0186] In some embodiments, the messaging systems described herein may be used to share updates on corporate social responsibility initiatives. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) describing CSR projects, with links to progress tracking documents stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0187] In some embodiments, the messaging systems described herein may be used to distribute global meeting summaries. For example, after a global meeting concludes, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notificationsDocket No: 0053-701.600INTERNATIONAL APPLICATION that include links to detailed minutes prepared in online document applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0188] In some embodiments, the messaging systems described herein may be used to provide enterprise policy updates. For example, when enterprise-level policies are updated within online applications, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications that link to a current policy versions. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0189] In some embodiments, the messaging systems described herein may be used to track digital transformation progress. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) updates describing the status of digital transformation initiatives, with links to progress-tracking sheets stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.INDUSTRY TYPE (HEALTHCARE AND LIFE SCIENCES, RETAIL, MANUFACTURING, GOVERNMENT AND PUBLIC SECTOR, PROFESSIONAL SERVICES, TECHNOLOGY)

[0190] In some embodiments, the messaging systems described herein may be used to provide patient appointment reminders. For example, online applications may be configured with upcoming appointments, and the AMDA 1000 may generate message (e g., a SMS, MMS, RCS, push notification or similar) reminders to patients, optionally including links to rescheduling or check-in pages. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0191] In some embodiments, the messaging systems described herein may be used to send prescription refill alerts. For example, refill schedules tracked in online spreadsheet applications may be monitored, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications when a prescription is due for refill, with links to the corresponding request forms. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0192] In some embodiments, the messaging systems described herein may be used to distribute test result notifications. For example, when laboratory results are available and stored in online storage applications or shared locations, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts containing secure links to the results. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0193] In some embodiments, the messaging systems described herein may be used for telemedicine scheduling. For example, telemedicine appointments may be scheduled via online applications, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders that include online videoconferencing links for session access. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0194] In some embodiments, the messaging systems described herein may be used to conduct patient satisfaction surveys. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) after appointments, with links to online form applications enabling patients to complete feedback surveys. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0195] In some embodiments, the messaging systems described herein may be used to transmit emergency alerts to healthcare staff. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications during urgent events, with links to response protocols stored in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0196] In some embodiments, the messaging systems described herein may be used to manage medical supply inventory. For example, supply counts tracked in online applications may be monitored, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts when stock reaches predefined reorder thresholds. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0197] In some embodiments, the messaging systems described herein may be used to deliver healthcare training reminders. For example, mandatory or non-mandatory training sessions may be scheduled via online applications, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders with links to training materials stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0198] In some embodiments, the messaging systems described herein may be used to facilitate patient intake form completion. For example, prior to an appointment, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) containing links to online form applications for pre-appointment intake data. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0199] In some embodiments, the messaging systems described herein may be used to provide medication schedule alerts. For example, medication schedules defined in online applications may be referenced, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders prompting patients to take doses at prescribed intervals. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0200] In some embodiments, the messaging systems described herein may be used to distribute doctor’s notes following consultations. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) containing links to physician notes stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0201] In some embodiments, the messaging systems described herein may be used to support clinical trial recruitment. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) alerts to potential participants, with links to eligibility information and study materials stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0202] In some embodiments, the messaging systems described herein may be used to conduct health awareness campaigns. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) updates regarding health topics, with links to educational materials maintained in online document applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0203] In some embodiments, the messaging systems described herein may be used to notify patients or administrators regarding insurance verification. For example, when verification is requested, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) notifications with links to verification forms or supporting documentation in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0204] In some embodiments, the messaging systems described herein may be used to provide patient follow-up reminders. For example, follow-up appointments may be scheduled in online applications, and the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) reminders with links to rescheduling, preparation instructions, or post-visit questionnaires. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0205] In some embodiments, the messaging systems described herein may be used to deliver healthcare compliance updates. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) alerts concerning regulatory or policy changes, with links to the latest versions of applicable policies in online document applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0206] In some embodiments, the messaging systems described herein may be used to schedule vaccination appointments. For example, vaccination time slots managed in online applications may be referenced, and the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) reminders that include scheduling and location details. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0207] In some embodiments, the messaging systems described herein may be used to generate health monitoring alerts. For example, health metrics tracked in online applications may be monitored, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications when measurements exceed predefined thresholds. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0208] In some embodiments, the messaging systems described herein may be used to transmit surgery preparation instructions. For example, prior to a scheduled procedure, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders that include links to preparation checklists stored in online document applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0209] In some embodiments, the messaging systems described herein may be used to notify emergency contacts during critical health events. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts to designated emergency contacts, with links to patient information stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0210] In some embodiments, the messaging systems described herein may be used to provide order confirmations. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) confirmations for purchases, with links to online applications tracking customer orders. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0211] In some embodiments, the messaging systems described herein may be used to send abandoned cart reminders. For example, when a cart remains incomplete, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) prompting customers to finish checkout, with links to online documents containing discount offers or promotional codes. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0212] In some embodiments, the messaging systems described herein may be used to distribute customer feedback surveys. For example, following a purchase, the AMDA 1000 mayDocket No: 0053-701.600INTERNATIONAL APPLICATION generate messages (e.g., a SMS, MMS, RCS, push notification or similar) containing links to online forms for collecting post-purchase feedback. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0213] In some embodiments, the messaging systems described herein may be used to announce product launches. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications of new product releases, with links to online websites providing further details. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0214] In some embodiments, the messaging systems described herein may be used to transmit inventory alerts. For example, inventory tracked in online applications may be monitored, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications when restocking is required. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0215] In some embodiments, the messaging systems described herein may be used to deliver loyalty program updates. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) messages regarding updated loyalty points balances, with links to online applications that track program status. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0216] In some embodiments, the messaging systems described herein may be used to send store event invitations. For example, online applications may be configured with in-store event schedules, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) invitations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0217] In some embodiments, the messaging systems described herein may be used to provide flash sale notifications. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts about limited-time sales, with links to online websites displaying promotional products. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0218] In some embodiments, the messaging systems described herein may be used to provide shipment tracking updates. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) with shipment status information. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0219] In some embodiments, the messaging systems described herein may be used to deliver customer service alerts. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications regarding customer inquiries, with links to online documents containing resolution steps or ticket status. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0220] In some embodiments, the messaging systems described herein may be used to provide promotion reminders. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) reminding customers of ongoing promotions. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0221] In some embodiments, the messaging systems described herein may be used to transmit store locator notifications. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) containing store location information. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0222] In some embodiments, the messaging systems described herein may be used to update customers on seasonal campaigns. For example, the AMDA 1000 may generate messages (e g., a SMS, MMS, RCS, push notification or similar) describing seasonal campaigns, with links to planning documents stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0223] In some embodiments, the messaging systems described herein may be used to provide employee scheduling reminders. For example, employee shift changes may be scheduled in online applications, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders sent to staff. A security check, as described elsewhere herein,Docket No: 0053-701.600INTERNATIONAL APPLICATION may be performed before the message is generated and sent, after the message has been sent, or both.

[0224] In some embodiments, the messaging systems described herein may be used to provide restock notifications for customers. For example, when previously unavailable products are restocked, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts with links to online websites. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0225] In some embodiments, the messaging systems described herein may be used to send price drop alerts. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) notifying customers of price decreases on wishlisted items. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0226] In some embodiments, the messaging systems described herein may be used to provide customer support ticket updates. For example, when support tickets are resolved, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications with links to resolution notes stored in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0227] In some embodiments, the messaging systems described herein may be used to deliver gift card balance updates. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) showing updated gift card balances, with links to online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0228] In some embodiments, the messaging systems described herein may be used to announce new store openings. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications regarding new store locations, with links to online websites providing additional information. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0229] In some embodiments, the messaging systems described herein may be used to facilitate survey participation incentives. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) containing links to surveys, with associated incentives tracked in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0230] In some embodiments, the messaging systems described herein may be used to provide production schedule updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications describing production milestones, with links to schedules maintained in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0231] In some embodiments, the messaging systems described herein may be used to deliver supply chain alerts. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications regarding supply chain disruptions, with links to contingency plans stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0232] In some embodiments, the messaging systems described herein may be used to provide equipment maintenance reminders. For example, scheduled maintenance events may be managed in online applications, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders to relevant technicians. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0233] In some embodiments, the messaging systems described herein may be used to support inventory management. For example, inventory levels tracked in online applications may be monitored, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts when restocking thresholds are reached. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0234] In some embodiments, the messaging systems described herein may be used to transmit quality control alerts. For example, the AMDA 1000 may generate message (e.g., a SMS,Docket No: 0053-701.600INTERNATIONAL APPLICATIONMMS, RCS, push notification or similar) notifications when quality metrics fall outside acceptable ranges, with links to tracking data maintained in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0235] In some embodiments, the messaging systems described herein may be used to distribute compliance training notifications. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders for compliance training, with links to training materials stored in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.[00236J In some embodiments, the messaging systems described herein may be used to provide product recall alerts. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications concerning recall events, with links to detailed instructions stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0237] In some embodiments, the messaging systems described herein may be used to manage workforce scheduling. For example, shift assignments and changes may be maintained in online applications, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts to inform staff of updated schedules. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0238] In some embodiments, the messaging systems described herein may be used to distribute project milestone updates. For example, milestones tracked in online applications may trigger the AMDA 1000 to generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications for project stakeholders. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0239] In some embodiments, the messaging systems described herein may be used to provide updates on new product development. For example, the AMDA 1000 to generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications describing development-stageDocket No: 0053-701.600INTERNATIONAL APPLICATION progress, with links to artifacts stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0240] In some embodiments, the messaging systems described herein may be used to send supplier invoice approval alerts. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications prompting approvers to review and approve invoices via linked materials. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0241] In some embodiments, the messaging systems described herein may be used to distribute safety protocol updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications describing changes to safety procedures, with links to updated protocols stored in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0242] In some embodiments, the messaging systems described herein may be used to provide order fulfillment alerts. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications regarding fulfillment status. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0243] In some embodiments, the messaging systems described herein may be used to remind employees of training sessions. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders for upcoming training sessions, with links to session details maintained in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0244] In some embodiments, the messaging systems described herein may be used to notify personnel of machine downtime. For example, when a machine enters an unplanned downtime state, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts with links to maintenance logs maintained in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0245] In some embodiments, the messaging systems described herein may be used to transmit material shortage alerts. For example, material levels tracked in online applications may be monitored, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications when shortages are detected, with links to procurement plans. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0246] In some embodiments, the messaging systems described herein may be used to communicate process optimization updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) messages describing process improvements, with links to supporting analysis stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0247] In some embodiments, the messaging systems described herein may be used to support supply chain resilience planning. For example, during disruptions, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts with links to recovery plans maintained in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0248] In some embodiments, the messaging systems described herein may be used to provide shipping notifications. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts for outgoing shipments, with links to tracking documents stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0249] In some embodiments, the messaging systems described herein may be used to deliver environmental compliance alerts. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications for environmental compliance deadlines, with links to policy documents in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0250] In some embodiments, the messaging systems described herein may be used to provide emergency alerts. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications during emergencies, with links to response plans stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0251] In some embodiments, the messaging systems described herein may be used to deliver public health campaign updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications regarding public health initiatives, with links to educational resources published on online websites. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0252] In some embodiments, the messaging systems described herein may be used to conduct citizen feedback surveys. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) containing links to online forms, enabling citizens to provide input on community matters. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0253] In some embodiments, the messaging systems described herein may be used to distribute event notifications. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) invitations for public events, with links to scheduling details in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0254] In some embodiments, the messaging systems described herein may be used to provide policy updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications regarding policy changes, with links to updated documents stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0255] In some embodiments, the messaging systems described herein may be used to deliver voting reminders. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) messages reminding citizens of voting days, with linksDocket No: 0053-701.600INTERNATIONAL APPLICATION to election dates or polling locations in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0256] In some embodiments, the messaging systems described herein may be used to provide tax filing notifications. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts regarding tax filing deadlines, with links to forms maintained in online applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0257] In some embodiments, the messaging systems described herein may be used to support disaster relief coordination. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications during disaster response efforts, with links to coordination plans stored in online storage applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0258] In some embodiments, the messaging systems described herein may be used to distribute civic engagement campaign updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications describing civic participation opportunities, with links to online websites for additional information. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0259] In some embodiments, the messaging systems described herein may be used to send public service announcements. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) messages communicating important updates, with links to detailed online documents. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0260] In some embodiments, the messaging systems described herein may be used to provide community meeting summaries. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications summarizing community discussions, with links to minutes maintained in online applications. A security check, as describedDocket No: 0053-701.600INTERNATIONAL APPLICATION elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0261] In some embodiments, the messaging systems described herein may be used to transmit permit application status updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) messages notifying citizens of changes in permit status. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0262] In some embodiments, the messaging systems described herein may be used to manage citizen service requests. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts regarding service requests. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0263] In some embodiments, the messaging systems described herein may be used to distribute legal documents. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications containing links to legal documents stored in online storage applications or shared locations for public access. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0264] In some embodiments, the messaging systems described herein may be used to deliver public safety alerts. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications regarding safety concerns, with links to updated response protocols stored in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0265] In some embodiments, the messaging systems described herein may be used to provide environmental monitoring updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications describing environmental conditions. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0266] In some embodiments, the messaging systems described herein may be used to distribute infrastructure project updates. For example, the AMDA 1000 may generate messageDocket No: 0053-701.600INTERNATIONAL APPLICATION(e.g., a SMS, MMS, RCS, push notification or similar) messages describing project status, with links to progress documents stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0267] In some embodiments, the messaging systems described herein may be used to send census participation reminders. For example, the AMDA 1000 may generate message (e g., a SMS, MMS, RCS, push notification or similar) notifications encouraging census responses, with links to online forms. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0268] In some embodiments, the messaging systems described herein may be used to provide government job notifications. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts when government job openings are available, with links to application forms stored in online document applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0269] In some embodiments, the messaging systems described herein may be used to distribute budget allocation announcements. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) describing budget allocations, with links to online applications for transparency and reporting. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0270] In some embodiments, the messaging systems described herein may be used to provide client meeting reminders. For example, online applications may be configured with upcoming client meetings, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders linked to the relevant calendar entry. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0271] In some embodiments, the messaging systems described herein may be used to deliver invoice payment notifications. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts when invoices are issued or paid. A securityDocket No: 0053-701.600INTERNATIONAL APPLICATION check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0272] In some embodiments, the messaging systems described herein may be used to transmit project status updates. For example, status fields tracked in online applications may trigger the AMDA 1000 to generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications to stakeholders. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0273] In some embodiments, the messaging systems described herein may be used to facilitate document sharing for client collaboration. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) messages containing links to shared documents stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0274] In some embodiments, the messaging systems described herein may be used for appointment scheduling. For example, online applications may be used to schedule sessions, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders to confirm or reschedule appointments. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0275] In some embodiments, the messaging systems described herein may be used to conduct client feedback surveys. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) messages containing links to online form applications for post-engagement feedback. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0276] In some embodiments, the messaging systems described herein may be used to provide contract renewal alerts. For example, renewal dates tracked in online applications may be monitored, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders to initiate renewal workflows. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0277] In some embodiments, the messaging systems described herein may be used to distribute training session notifications. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders for professional training sessions. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0278] In some embodiments, the messaging systems described herein may be used to send event invitations. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) invitations for professional events, with links to scheduling entries maintained in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0279] In some embodiments, the messaging systems described herein may be used to support client proposal follow-ups. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders prompting account teams to follow up on outstanding proposals, with links to proposal drafts stored in online documents. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0280] In some embodiments, the messaging systems described herein may be used to provide legal compliance updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts describing regulatory or policy changes, with links to updated guidance in online documents. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0281] In some embodiments, the messaging systems described herein may be used to deliver additional client proposal follow-up reminders. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) after scheduled review meetings, with links to revised proposal materials in online documents. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0282] In some embodiments, the messaging systems described herein may be used to transmit legal compliance updates with document linkage. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications that linkDocket No: 0053-701.600INTERNATIONAL APPLICATION directly to updated compliance documents stored in online repositories for firm-wide acknowledgment. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0283] In some embodiments, the messaging systems described herein may be used to notify stakeholders of case file updates. For example, when case files are modified in online storage applications or shared locations, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) indicating the update. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0284] In some embodiments, the messaging systems described herein may be used to provide time tracking alerts. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders prompting personnel to log billable hours, with links to time-entry sheets maintained in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0285] In some embodiments, the messaging systems described herein may be used to send service renewal reminders. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications prompting clients to renew services, with links to contract documents stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0286] In some embodiments, the messaging systems described herein may be used to distribute client engagement metrics. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) updates that summarize engagement indicators tracked in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0287] In some embodiments, the messaging systems described herein may be used to provide portfolio showcase notifications. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) invitations to view updated portfolios, with links to online websites displaying recent work. A security check, as described elsewhere herein,Docket No: 0053-701.600INTERNATIONAL APPLICATION may be performed before the message is generated and sent, after the message has been sent, or both.

[0288] In some embodiments, the messaging systems described herein may be used to deliver client billing alerts. For example, when client bills are generated and tracked in online applications, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications with links to invoice summaries. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0289] In some embodiments, the messaging systems described herein may be used to provide project deadline reminders. For example, deadlines scheduled in online applications may trigger the AMDA 1000 to generate messages (e.g., a SMS, MMS, RCS, push notification or similar) reminding team members of approaching due dates, with links to project notes. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0290] In some embodiments, the messaging systems described herein may be used to schedule contract reviews. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts prompting stakeholders to schedule contract reviews, with links to the operative documents in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0291] In some embodiments, the messaging systems described herein may be used to distribute performance review notifications. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders regarding upcoming performance reviews, with links to preparation materials in online documents. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0292] In some embodiments, the messaging systems described herein may be used to announce product releases. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) updates regarding new product versions, with links to online websites containing release details. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0293] In some embodiments, the messaging systems described herein may be used to provide bug detection alerts. For example, the AMD A 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications for high-priority bug detections. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0294] In some embodiments, the messaging systems described herein may be used to deliver developer stand-up reminders. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders for daily stand-ups, integrated with online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0295] In some embodiments, the messaging systems described herein may be used to transmit code review notifications. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts when code reviews are requested, with links to online documents that include review checklists or diffs. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0296] In some embodiments, the messaging systems described herein may be used to provide system downtime alerts. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications for planned or active downtime, with links to schedules stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0297] In some embodiments, the messaging systems described herein may be used to announce security patches. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts describing patch availability and severity, with links to detailed documentation stored in online repositories. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0298] In some embodiments, the messaging systems described herein may be used to communicate API integration updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications when API endpoints, schemas, orDocket No: 0053-701.600INTERNATIONAL APPLICATION rate limits change, with links to developer documentation maintained in online document applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0299] In some embodiments, the messaging systems described herein may be used to support customer onboarding. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) outlining onboarding steps, with links to resources stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0300] In some embodiments, the messaging systems described herein may be used for cloud infrastructure monitoring alerts. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications when cloud metrics exceed thresholds. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0301] In some embodiments, the messaging systems described herein may be used to distribute technology roadmap updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications describing roadmap changes, with links to planning artifacts stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0302] In some embodiments, the messaging systems described herein may be used to provide DevOps deployment reminders. For example, deployment windows scheduled in online calendar applications may trigger the AMDA 1000 to generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders to relevant engineers, with links to checklists. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0303] In some embodiments, the messaging systems described herein may be used to conduct product feedback surveys. For example, the AMDA 1000 may generate messages (e.g., a SMS, MMS, RCS, push notification or similar) containing links to online applications for collecting user feedback. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0304] In some embodiments, the messaging systems described herein may be used to notify stakeholders of client support ticket updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts when support ticket status changes, with links to resolution notes stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0305] In some embodiments, the messaging systems described herein may be used to manage hardware inventory. For example, inventory tracked in online applications may be monitored, and the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts when stock levels fall below predefined thresholds. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0306] In some embodiments, the messaging systems described herein may be used to provide version control notifications. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) messages when new software versions are released, with links to release notes stored in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0307] In some embodiments, the messaging systems described herein may be used to transmit performance monitoring alerts. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications when application or service performance degrades. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0308] In some embodiments, the messaging systems described herein may be used to send user training session reminders. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) reminders for scheduled training, linked to session entries in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0309] In some embodiments, the messaging systems described herein may be used to provide system upgrade notifications. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) alerts describing upgrade timing and impact,Docket No: 0053-701.600INTERNATIONAL APPLICATION with links to upgrade schedules stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0310] In some embodiments, the messaging systems described herein may be used to support data breach response plans. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications during a breach event, with links to response protocols stored in online storage applications or shared locations. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.

[0311] In some embodiments, the messaging systems described herein may be used to announce AI / ML model updates. For example, the AMDA 1000 may generate message (e.g., a SMS, MMS, RCS, push notification or similar) notifications when models or training datasets are updated, with links to documentation maintained in online applications. A security check, as described elsewhere herein, may be performed before the message is generated and sent, after the message has been sent, or both.SECURITY - BY SOLUTION TYPE (INDIVIDUAL, BUSINESS, ENTERPRISE)

[0312] In some embodiments, the messaging systems described herein may be used to generate personalized travel itineraries, secured through adaptive security sequences. For example, the recipient may wish to access or modify sensitive travel details after receiving the SMS, MMS, or RCS message. Access and security automation ensures that the authorized individual can act. Example Flow: Step 1 : The user receives a message (e.g., a SMS, MMS, RCS, push notification or similar) with their daily travel itinerary. Step 2: The user clicks on a secure link to view or update the itinerary in an online application. Step 3: An adaptive security sequence authenticates the user before enabling access or modifications to the travel details.

[0313] In some embodiments, the messaging systems described herein may be used to provide budget alerts, with secure access to financial data gated by adaptive security sequences. For example, when a user approaches predefined budget thresholds, they may need to view or update sensitive financial information. Authentication prevents unauthorized access to private budgetary data. Example Flow: Step 1 : The system sends a message (e.g., a SMS, MMS, RCS,Docket No: 0053-701.600INTERNATIONAL APPLICATION push notification or similar) alert when budget limits are approached. Step 2: The user clicks on a link in the message to review or adjust their budget in the online spreadsheet application. Step 3: An adaptive security sequence authenticates the user before granting access to the budget worksheet and related financial data.

[0314] In some embodiments, the messaging systems described herein may be used to deliver recipe recommendations, with controlled access to personalized ingredient data. For example, when recipes are generated from a user’s personalized ingredient lists in online applications, authentication ensures only the intended recipient can view or modify the associated information. Example Flow: Step 1 : The user receives a message (e.g., a SMS, MMS, RCS, push notification or similar) containing a daily recipe suggestion. Step 2: The user clicks on a link to view the recipe or cross-check available ingredients in an online application. Step 3 : An adaptive security sequence verifies the user’s identity before permitting access to personalized recipe recommendations and ingredient tracking.

[0315] In some embodiments, the messaging systems described herein may be used to provide client meeting reminders. For example, after receiving a meeting reminder, the recipient may request to access or share sensitive documents related to the meeting, triggering a request to perform secure authentication. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) reminder is sent for an upcoming client meeting. Step 2: The recipient clicks on a link to access meeting documents in online storage applications or shared locations. Step 3: An adaptive security sequence is used to authenticate the recipient before granting access to sensitive documents.

[0316] In some embodiments, the messaging systems described herein may be used to transmit expense approval notifications. For example, approving expenses involves accessing sensitive financial data, and authentication ensures only authorized personnel can approve or reject expense reports. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) notification is sent to alert the recipient of pending expense approvals. Step 2: The recipient clicks on a link to review and approve the expenses. Step 3: An adaptive security sequence authenticates the recipient before allowing them to access and approve the expense report.

[0317] In some embodiments, the messaging systems described herein may be used to support customer feedback collection. For example, to ensure the integrity of the feedback process,Docket No: 0053-701.600INTERNATIONAL APPLICATION authentication is requested when the customer submits feedback, preventing unauthorized submissions or manipulations. Online form applications may be used to collect customer feedback, with message prompts sent to customers directing them to complete surveys. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent with a link to a customer feedback survey. Step 2: The customer clicks on the link to fill out the survey in online form applications. Step 3: An adaptive security sequence verifies the customer’s identity before allowing them to submit their feedback.

[0318] In some embodiments, the messaging systems described herein may be used to provide security breach notifications. For example, in the event of a security breach, authenticated access to response plans and incident details is critical to ensure that only authorized personnel can act. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent to alert the team of a security breach. Step 2: The recipient clicks on a link to access detailed incident reports and response plans. Step 3: An adaptive security sequence authenticates the recipient before granting access to the sensitive information.

[0319] In some embodiments, the messaging systems described herein may be used to support vendor contract management. For example, when accessing or updating contract details, secure authentication is necessary to prevent unauthorized changes or access to sensitive business agreements. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) notification is sent to inform the recipient of a pending vendor contract renewal. Step 2: The recipient clicks on a link to review and possibly amend the contract. Step 3: An adaptive security sequence verifies the recipient’s identity before allowing access to the contract details.

[0320] In some embodiments, the messaging systems described herein may be used to provide data breach response plans. For example, in a data breach scenario, recipients can be authenticated before accessing or modifying response plans, ensuring that only authorized personnel can manage the situation. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent to the incident response team with a link to the breach response plan. Step 2: The recipient clicks on the link to review and implement the response plan. Step 3: An adaptive security sequence authenticates the recipient before granting access to the response plan, ensuring the security of the process.

[0321] In some embodiments, the messaging systems described herein may be used to provide regulatory compliance updates. For example, when handling compliance-related updates,Docket No: 0053-701.600INTERNATIONAL APPLICATION secure authentication is triggered to ensure that only authorized individuals can access and act on regulatory information. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) notification is sent to responsible parties regarding upcoming compliance deadlines. Step 2: The recipient clicks on a link to review and update compliance documentation. Step 3: An adaptive security sequence is used to authenticate the recipient, ensuring that only authorized personnel can access and manage compliance updates.

[0322] In some embodiments, the messaging systems described herein may be used to provide patient appointment reminders for a particular industry. For example, appointment details may include sensitive patient information, and securing the process ensures that only the intended patient can confirm or modify appointments. Example Flow: Step 1 : A message (e g., a SMS, MMS, RCS, push notification or similar) is sent reminding the patient of an upcoming appointment. Step 2: The patient clicks on the link to confirm or reschedule. Step 3: An adaptive security sequence verifies the patient’s identity before allowing the patient to act.

[0323] In some embodiments, the messaging systems described herein may be used to transmit prescription refill alerts. For example, prescription information may be sent when prescriptions are due for a refill. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the patient to refill their prescription. Step 2: The patient clicks on the link to request the refill. Step 3: An adaptive security sequence authenticates the patient before processing the refill request.

[0324] In some embodiments, the messaging systems described herein may be used to provide test result notifications. For example, medical test results may be sent when lab results are available. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the patient that their test results are available. Step 2: The patient clicks on the link to view their results. Step 3 : An adaptive security sequence verifies the patient’ s identity before granting access to the test results.

[0325] In some embodiments, the messaging systems described herein may be used to support telemedicine scheduling. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent with a reminder and a link to the telemedicine session. Step 2: The patient clicks on the link to join the session. Step 3: An adaptive security sequence authenticates the patient before allowing them to enter the online videoconferencing session.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0326] In some embodiments, the messaging systems described herein may be used to collect patient satisfaction surveys. For example, to ensure the integrity of feedback, it is important that only the intended patient can complete the satisfaction survey. Messages may be generated post-appointment, with links to online forms for survey completion. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent inviting the patient to complete a satisfaction survey. Step 2: The patient clicks on the link to fill out the survey. Step 3: An adaptive security sequence verifies the patient’s identity before allowing them to submit the survey.

[0327] In some embodiments, the messaging systems described herein may be used to deliver emergency alerts to healthcare staff. For example, emergency alerts can reach the correct healthcare staff to ensure a timely and effective response using message notifications that may be sent during emergencies, with links to response protocols in online documents. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent to notify healthcare staff of an emergency. Step 2: Staff clicks on the link to view the response protocols. Step 3 : An adaptive security sequence authenticates the staff member before allowing access to the emergency protocols.

[0328] In some embodiments, the messaging systems described herein may be used to manage medical supply inventory. For example, inventory management involves sensitive operational data that should be accessed only by authorized personnel. Medical supplies may be tracked in online applications, with message alerts sent when stock is low. Example Flow: Step 1: A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent when medical supplies are low. Step 2: The recipient clicks on the link to review the inventory. Step 3: An adaptive security sequence authenticates the recipient before granting access to the inventory details.

[0329] In some embodiments, the messaging systems described herein may be used to send healthcare training reminders. For example, training sessions are crucial for compliance and patient safety, and secure authentication ensures that only authorized staff attend. Message reminders may be generated for training sessions, integrated with online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding staff of upcoming training. Step 2: The recipient clicks on the link to view training details. Step 3: An adaptive security sequence authenticates the recipient before allowing access to the training session information.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0330] In some embodiments, the messaging systems described herein may be used for patient intake form completion. For example, intake forms contain sensitive medical and personal information that can be secured. Messages may contain links to online forms for pre-appointment intake. Example Flow: Step 1: A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent with a link to the intake form. Step 2: The patient clicks on the link to fill out the form. Step 3: An adaptive security sequence verifies the patient’s identity before allowing form submission.

[0331] In some embodiments, the messaging systems described herein may be used to deliver medication schedule alerts. For example, medication schedules are critical for patient health, and secure authentication ensures that only the correct patient can access or modify the schedule. Message reminders may be sent to patients with links to schedules in online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the patient to take their medication. Step 2: The patient clicks on the link to view or adjust their schedule. Step 3: An adaptive security sequence authenticates the patient before allowing access to the medication schedule.

[0332] In some embodiments, the messaging systems described herein may be used to provide order confirmations. For example, order confirmations involve sensitive purchase information that should be secured to ensure only the customer can access and track the order. Message confirmations may be sent with links to online applications tracking customer orders. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent confirming the order with a link to track it. Step 2: The customer clicks on the link to view their order status. Step 3: An adaptive security sequence verifies the customer’s identity before granting access to the tracking information.

[0333] In some embodiments, the messaging systems described herein may be used to send abandoned cart reminders. For example, reminders for abandoned carts may involve personalized offers or discounts that should be securely delivered to the customer. Message reminders may be sent when carts remain incomplete, with links to online documents containing discount offers. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the customer of their abandoned cart or discount offer. Step 2: The customer clicks on the link to review and complete their purchase. Step 3 : An adaptive security sequence authenticates the customer before allowing access to the cart or discount offer.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0334] In some embodiments, the messaging systems described herein may be used to collect customer feedback surveys. For example, customer feedback is often linked to personal purchase experiences and should be securely managed. Messages may direct customers to online forms for post-purchase feedback. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent inviting the customer to complete a feedback survey. Step 2: The customer clicks on the link to fill out the survey. Step 3 : An adaptive security sequence verifies the customer’s identity before allowing them to submit the feedback.

[0335] In some embodiments, the messaging systems described herein may be used for product launch announcements. For example, product launch information may include exclusive offers or details for new product launches, with links to online websites. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent announcing a new product launch. Step 2: The customer clicks on the link to view the product details. Step 3: An adaptive security sequence authenticates the customer before allowing access to the launch information.

[0336] In some embodiments, the messaging systems described herein may be used to provide inventory alerts. For example, inventory management involves sensitive business data that should be accessed by authorized personnel. Inventory may be tracked in online applications, with message alerts generated for restocking needs. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent when inventory levels are low. Step 2: The recipient clicks on the link to review inventory and initiate restocking. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the inventory data.

[0337] In some embodiments, the messaging systems described herein may be used to send loyalty program updates. For example, loyalty programs involve customer-specific data and rewards that should be securely managed. Message updates that may be sent with links to online applications tracking loyalty balances. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar)is sent with an update on the customer’s loyalty points. Step 2: The customer clicks on the link to view their points balance and redeem rewards. Step 3: An adaptive security sequence verifies the customer’s identity before granting access to the loyalty program details.

[0338] In some embodiments, the messaging systems described herein may be used to deliver store event invitations. For example, invitations to in-store events may include personalized offers or exclusive access that should be secured. Message invitations may be generated for storeDocket No: 0053-701.600INTERNATIONAL APPLICATION events, integrated with online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent inviting the customer to an in-store event. Step 2: The customer clicks on the link to RSVP or add the event to their calendar. Step 3 : An adaptive security sequence authenticates the customer before allowing access to the event details.

[0339] In some embodiments, the messaging systems described herein may be used to send flash sale notifications. For example, flash sales often involve time-sensitive and exclusive offers that should be securely communicated. Message alerts may be sent for flash sales, with links to online websites containing product listings. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent announcing a flash sale. Step 2: The customer clicks on the link to view and purchase sale items. Step 3: An adaptive security sequence authenticates the customer before granting access to the flash sale details.

[0340] In some embodiments, the messaging systems described herein may be used to transmit shipment tracking updates. For example, shipment updates involve sensitive order information that should be securely delivered to the customer using message notifications that may provide shipment status, with links to online applications for tracking. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent with an update on the shipment status. Step 2: The customer clicks on the link to track their shipment. Step 3 : An adaptive security sequence verifies the customer’s identity before granting access to the tracking information.

[0341] In some embodiments, the messaging systems described herein may be used to provide customer service alerts. For example, customer service alerts often involve sensitive or personalized information that should be securely handled. Message notifications may be sent regarding customer inquiries, with links to online documents containing resolution details. Example Flow: Step 1: A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the customer of an update on their inquiry. Step 2: The customer clicks on the link to view the resolution details. Step 3: An adaptive security sequence authenticates the customer before granting access to the customer service documentation.

[0342] In some embodiments, the messaging systems described herein may be used to deliver promotion reminders. For example, promotion reminders may include personalized or exclusive offers that should be securely delivered to the customer. Messages may remind customers of ongoing promotions, with links to online applications. Example Flow: Step 1 : ADocket No: 0053-701.600INTERNATIONAL APPLICATION message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the customer of an ongoing promotion. Step 2: The customer clicks on the link to view and claim the promotion. Step 3: An adaptive security sequence verifies the customer’s identity before allowing access to the promotion details.

[0343] In some embodiments, the messaging systems described herein may be used to provide store locator notifications. For example, store locator information may include personalized recommendations based on the customer’s location. Messages may include links to store locations, integrated with online maps applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent with a link to find nearby store locations. Step 2: The customer clicks on the link to view store details in online maps. Step 3: An adaptive security sequence authenticates the customer before allowing access to personalized location information.

[0344] In some embodiments, the messaging systems described herein may be used to send seasonal campaign updates. For example, seasonal campaigns may involve personalized offers or time-sensitive promotions. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent announcing a seasonal campaign. Step 2: The recipient clicks on the link to view campaign details and offers. Step 3: An adaptive security sequence authenticates the recipient before granting access to the campaign information.

[0345] In some embodiments, the messaging systems described herein may be used for employee scheduling. For example, employee schedules involve sensitive work information that should be securely managed. Messages reminders may be generated for shift changes, integrated with online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the employee of a shift change. Step 2: The employee clicks on the link to view and confirm their schedule. Step 3: An adaptive security sequence verifies the employee’s identity before granting access to the scheduling information.

[0346] In some embodiments, the messaging systems described herein may be used to provide restock notifications for customers. For example, restock notifications may involve personalized product information and offers that may be sent when out-of-stock items become available, with links to online websites. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the customer that an out-of-stock item is backDocket No: 0053-701.600INTERNATIONAL APPLICATION in stock. Step 2: The customer clicks on the link to view and purchase the item. Step 3 : An adaptive security sequence authenticates the customer before granting access to the product details.

[0347] In some embodiments, the messaging systems described herein may be used to deliver price drop alerts. For example, price drop alerts may involve personalized offers or discounts that may be sent when wishlisted items experience price reductions, with links to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the customer of a price drop on a wishlisted item. Step 2: The customer clicks on the link to view and purchase the item. Step 3: An adaptive security sequence authenticates the customer before granting access to the price drop details.

[0348] In some embodiments, the messaging systems described herein may be used to update customer support tickets. For example, support tickets may contain sensitive or personalized information that should only be accessed by the customer and authorized personnel. Message notifications which may be sent when support tickets are updated, with links to online documents containing resolution details. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent to the customer with a link to view the resolution of their support ticket. Step 2: The customer clicks on the link to access the ticket details. Step 3: An adaptive security sequence authenticates the customer before granting access to the support ticket documentation.

[0349] In some embodiments, the messaging systems described herein may be used to provide gift card balance updates. For example, gift card balances involve financial information that should be securely managed to prevent unauthorized use. Message updates may be sent to customers with links to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent to the customer with their gift card balance. Step 2: The customer clicks on the link to view detailed balance information. Step 3 : An adaptive security sequence authenticates the customer before granting access to the gift card balance.

[0350] In some embodiments, the messaging systems described herein may be used to announce new store openings. For example, store opening announcements may include exclusive offers that may be communicated to eligible customers using message notifications with links to online websites. Example Flow: Step 1: A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent announcing a new store opening. Step 2: The customer clicks on the link to viewDocket No: 0053-701.600INTERNATIONAL APPLICATION store details and offers. Step 3: An adaptive security sequence authenticates the customer before granting access to the store opening information.

[0351] In some embodiments, the messaging systems described herein may be used to manage survey participation incentives. For example, survey incentives often involve personal or financial rewards that should be securely managed to ensure only eligible participants can claim them. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent inviting the customer to participate in a survey. Step 2: The customer clicks on the link to complete the survey and claim their incentive. Step 3 : An adaptive security sequence verifies the customer’s identity before allowing them to submit the survey and access the incentive.

[0352] In some embodiments, the messaging systems described herein may be used for production schedule updates. For example, production schedules involve critical operational data that should be securely managed to ensure that only authorized personnel can access or modify the schedule. Message notifications may be sent for production milestones, linked to data in online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a production milestone. Step 2: The recipient clicks on the link to view or update the production schedule. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the schedule.

[0353] In some embodiments, the messaging systems described herein may be used for supply chain alerts. For example, supply chain alerts often involve sensitive operational and logistical information that should be securely managed to prevent disruptions. Message alerts may be sent for supply chain disruptions, linked to data from online storage applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a supply chain disruption. Step 2: The recipient clicks on the link to view and act on the disruption plan. Step 3: An adaptive security sequence authenticates the recipient before granting access to the supply chain details.

[0354] In some embodiments, the messaging systems described herein may be used for equipment maintenance reminders. For example, maintenance schedules involve operational data that should be securely managed to prevent unauthorized access or modifications. Message reminders may be sent for scheduled maintenance, integrated with data from online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the team of upcoming equipment maintenance. Step 2: The recipient clicks on the linkDocket No: 0053-701.600INTERNATIONAL APPLICATION to view or confirm the maintenance schedule. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the maintenance details.

[0355] In some embodiments, the messaging systems described herein may be used for inventory management. For example, Inventory management involves sensitive data that should be accessed by authorized personnel to prevent unauthorized modifications or disruptions. Inventory levels in online applications may trigger message alerts for restocking. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent when inventory levels are low. Step 2: The recipient clicks on the link to review inventory and initiate restocking. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the inventory data.[00356J In some embodiments, the messaging systems described herein may be used for quality control alerts. For example, quality control issues often involve critical product information that should be securely managed to ensure only authorized personnel can act on it. Message alerts for quality control issues may be sent linked to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a quality control issue. Step 2: The recipient clicks on the link to review the issue and take corrective action. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the quality control data.

[0357] In some embodiments, the messaging systems described herein may be used for compliance training notifications. For example, compliance training involves critical regulatory information that should be securely managed to ensure that only authorized personnel participate. Message reminders for compliance training may be sent linked to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the team of upcoming compliance training. Step 2: The recipient clicks on the link to view and participate in the training. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the training materials.

[0358] In some embodiments, the messaging systems described herein may be used for product recall alerts. For example, product recall alerts involve critical and sensitive information that can be securely communicated to the relevant personnel. Message notifications for product recalls may be sent linked to detailed instructions in online storage applications or locations. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sentDocket No: 0053-701.600INTERNATIONAL APPLICATION notifying the team of a product recall. Step 2: The recipient clicks on the link to view the recall instructions. Step 3: An adaptive security sequence authenticates the recipient before granting access to the recall details.

[0359] In some embodiments, the messaging systems described herein may be used for workforce scheduling. For example, workforce scheduling involves sensitive operational data that should be securely managed to prevent unauthorized access or modifications. Message alerts for shift scheduling changes may be sent linked to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the workforce of shift scheduling changes. Step 2: The recipient clicks on the link to view and confirm their shift. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the scheduling information.

[0360] In some embodiments, the messaging systems described herein may be used for project milestone updates. For example, project milestones involve critical operational data that should be securely managed to ensure that only authorized personnel can access or modify the information. Message notifications for project milestones may be sent linked to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a project milestone. Step 2: The recipient clicks on the link to view or update the project details. Step 3: An adaptive security sequence authenticates the recipient before granting access to the project information.

[0361] In some embodiments, the messaging systems described herein may be used for new product development. For example, new product development involves sensitive intellectual property and operational data that can be securely managed. Message updates on new product development stages may be sent linked to online storage applications or locations. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent updating the team on new product development progress. Step 2: The recipient clicks on the link to view the development details. Step 3: An adaptive security sequence authenticates the recipient before granting access to the development documentation.

[0362] In some embodiments, the messaging systems described herein may be used for supplier invoice approvals. For example, approving invoices involves sensitive financial transactions that can be securely managed to prevent unauthorized access. Message alerts for pending supplier invoice approvals may be sent linked to online applications. Example Flow: StepDocket No: 0053-701.600INTERNATIONAL APPLICATION1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the approver of a pending supplier invoice. Step 2: The approver clicks on the link to review and approve the invoice. Step 3: An adaptive security sequence authenticates the approver before allowing them to approve the invoice.

[0363] In some embodiments, the messaging systems described herein may be used for safety protocol updates. For example, safety protocols involve critical operational data that can be securely managed to ensure that only authorized personnel can access or modify the information. Message notifications for safety protocol changes may be sent linked to online documents. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of updated safety protocols. Step 2: The recipient clicks on the link to review the updated protocols. Step 3: An adaptive security sequence authenticates the recipient before granting access to the safety protocols.

[0364] In some embodiments, the messaging systems described herein may be used for order fulfillment alerts. For example, order fulfillment involves critical logistical data that should be securely managed to prevent unauthorized access or disruptions. Message alerts for order fulfillment status may be sent linked to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent updating the team on order fulfillment status. Step 2: The recipient clicks on the link to view the fulfillment details. Step 3: An adaptive security sequence authenticates the recipient before granting access to the order fulfillment data.

[0365] In some embodiments, the messaging systems described herein may be used for employee training sessions. For example, employee training sessions involve critical operational and compliance information that should be securely managed. Message reminders for training sessions may be sent linked to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding employees of an upcoming training session. Step 2: The recipient clicks on the link to view or confirm their participation in the training. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the training details.

[0366] In some embodiments, the messaging systems described herein may be used for machine downtime notifications. For example, machine downtime involves critical operational data that should be securely managed to prevent unauthorized access or disruptions. Message alertsDocket No: 0053-701.600INTERNATIONAL APPLICATION for machine downtime may be sent linked to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of machine downtime. Step 2: The recipient clicks on the link to view or update the downtime log. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the downtime information.

[0367] In some embodiments, the messaging systems described herein may be used for material shortage alerts. For example, material shortages involve critical operational data that should be securely managed to prevent disruptions in production. Message notifications for material shortages may be sent linked to online applications. Example Flow: Step 1 : A message (e g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a material shortage. Step 2: The recipient clicks on the link to view and address the shortage. Step 3: An adaptive security sequence authenticates the recipient before granting access to the procurement plans.

[0368] In some embodiments, the messaging systems described herein may be used for process optimization updates. For example, process optimization involves critical operational data that can be securely managed to ensure that only authorized personnel can access or modify the information. Messages updates on process improvements may be sent linked to online storage applications or locations. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent updating the team on process optimization progress. Step 2: The recipient clicks on the link to view the optimization details. Step 3: An adaptive security sequence authenticates the recipient before granting access to the optimization documentation.

[0369] In some embodiments, the messaging systems described herein may be used for supply chain resilience planning. For example, supply chain resilience planning involves sensitive operational data that should be securely managed to prevent disruptions and unauthorized access. Message alerts during supply chain disruptions may be sent linked to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of supply chain disruptions and recovery plans. Step 2: The recipient clicks on the link to view and act on the recovery plans. Step 3: An adaptive security sequence authenticates the recipient before granting access to the supply chain resilience information.

[0370] In some embodiments, the messaging systems described herein may be used for shipping notifications. For example, shipping notifications involve logistical data that should beDocket No: 0053-701.600INTERNATIONAL APPLICATION securely managed to prevent unauthorized access or disruptions. Message alerts for outgoing shipments may be sent linked to online applications or locations. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent updating the team on outgoing shipments. Step 2: The recipient clicks on the link to view and manage the shipment tracking. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the shipment details.

[0371] In some embodiments, the messaging systems described herein may be used for environmental compliance alerts. For example, environmental compliance involves sensitive regulatory data that can be securely managed to ensure that only authorized personnel can access or modify the information. Message notifications for environmental compliance deadlines may be sent linked to online documents. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the team of upcoming environmental compliance deadlines. Step 2: The recipient clicks on the link to view and act on the compliance requirements. Step 3: An adaptive security sequence authenticates the recipient before granting access to the compliance documentation.

[0372] In some embodiments, the messaging systems described herein may be used to deliver emergency alerts. For example, emergency alerts involve critical information that can be securely managed to ensure that the correct personnel receive and act on the alerts that may be generated during emergencies, with links to response plans in online storage applications or shared locations. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of an emergency. Step 2: The recipient clicks on the link to view and act on the emergency response plan. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the emergency response details.

[0373] In some embodiments, the messaging systems described herein may be used to deliver public health campaign updates. For example, public health campaigns may involve sensitive health information that can be securely managed to ensure that only the correct recipients access the information which may be sent to communicate public health initiatives, with links to online websites. Example Flow:Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent updating the public on a health campaign.Docket No: 0053-701.600INTERNATIONAL APPLICATIONStep 2: The recipient clicks on the link to view the campaign details. Step 3: An adaptive security sequence authenticates the recipient before granting access to the public health information.

[0374] In some embodiments, the messaging systems described herein may be used to conduct citizen feedback surveys. For example, feedback surveys often involve sensitive or personalized information that can be securely managed to ensure the integrity of the feedback process. Messages may be sent to invite citizens to complete surveys, with links to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent inviting citizens to participate in a feedback survey. Step 2: The recipient clicks on the link to complete the survey. Step 3: An adaptive security sequence authenticates the recipient before allowing them to submit the feedback.[00375J In some embodiments, the messaging systems described herein may be used to provide event notifications. For example, event notifications may involve sensitive or exclusive information that should be securely managed to ensure that only the correct recipients receive the information. Message invitations may be sent for public events, with links to online applications. Example Flow: Step 1: A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent inviting citizens to a public event. Step 2: The recipient clicks on the link to RSVP or add the event to their calendar. Step 3 : An adaptive security sequence authenticates the recipient before allowing them to act on the event invitation.

[0376] In some embodiments, the messaging systems described herein may be used to provide policy updates. For example, policy updates often involve critical or sensitive information that should be securely managed to ensure that only authorized personnel receive and act on the information. Message notifications may be sent to distribute updates regarding policy changes, with links to online storage applications or shared documents. Example Flow: Step 1 : A message (e g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a policy update. Step 2: The recipient clicks on the link to view the updated policy. Step 3: An adaptive security sequence authenticates the recipient before granting access to the policy document.

[0377] In some embodiments, the messaging systems described herein may be used to send voting reminders. For example, voting reminders may involve sensitive or personalized information that should be securely managed to ensure that only the correct recipients receive and act on the information. Message reminders may be sent for voting days, linked to online calendar applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification orDocket No: 0053-701.600INTERNATIONAL APPLICATION similar) is sent reminding citizens of an upcoming voting day. Step 2: The recipient clicks on the link to view their polling location or add the date to their calendar. Step 3: An adaptive security sequence authenticates the recipient before allowing them to act on the voting reminder.

[0378] In some embodiments, the messaging systems described herein may be used to provide tax filing notifications. For example, tax filing notifications involve sensitive financial information that can be securely managed to prevent unauthorized access or disruptions. Message alerts that may be sent regarding tax filing deadlines, with links to forms in online storage applications or shared locations. Example Flow: Step 1: A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding citizens of an upcoming tax filing deadline. Step 2: The recipient clicks on the link to view and complete their tax filing. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the tax forms.

[0379] In some embodiments, the messaging systems described herein may be used to promote civic engagement campaigns. For example, civic engagement campaigns may involve sensitive or personalized information that should be securely managed to ensure that only the correct recipients receive and act on the information Message notifications that may be sent to update citizens on civic engagement opportunities, with links to online websites. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent updating citizens on civic engagement opportunities. Step 2: The recipient clicks on the link to view and participate in the campaign. Step 3: An adaptive security sequence authenticates the recipient before granting access to the civic engagement details.

[0380] In some embodiments, the messaging systems described herein may be used to deliver public service announcements. For example, public service announcements may involve critical or sensitive information that should be securely managed to ensure that only the correct recipients receive and act on the information. Messages may be sent to notify citizens of public service announcements, with links to online documents. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying citizens of a public service announcement. Step 2: The recipient clicks on the link to view the announcement details. Step 3: An adaptive security sequence authenticates the recipient before granting access to the public service document.

[0381] In some embodiments, the messaging systems described herein may be used to coordinate disaster relief. For example, disaster relief coordination involves critical and sensitiveDocket No: 0053-701.600INTERNATIONAL APPLICATION information that can be securely managed to ensure that the correct personnel receive and act on the information. Message alerts that may be generated during disaster relief efforts, with links to coordination plans in online storage applications or shared locations. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a disaster relief effort. Step 2: The recipient clicks on the link to view and act on the coordination plan. Step 3: An adaptive security sequence authenticates the recipient before granting access to the disaster relief information.

[0382] In some embodiments, the messaging systems described herein may be used to distribute community meeting summaries. For example, community meeting summaries may involve sensitive or personalized information that should be securely managed to ensure that only the correct recipients receive and act on the information. Message summaries of community meetings may be generated, with links to minutes maintained in online document applications. Example Flow: Step 1: A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent summarizing a community meeting. Step 2: The recipient clicks on the link to view the meeting minutes. Step 3: An adaptive security sequence authenticates the recipient before granting access to the meeting document.

[0383] In some embodiments, the messaging systems described herein may be used to provide permit application status updates. For example, permit application statuses involve sensitive or personalized information that should be securely managed so only the applicant or authorized personnel can access the status. Message notifications for permit application statuses may be sent, with links to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the applicant of their permit application status. Step 2: The recipient clicks on the link to view the status details. Step 3: An adaptive security sequence authenticates the applicant before granting access to the permit status.

[0384] In some embodiments, the messaging systems described herein may be used to manage citizen service requests. For example, service requests often include sensitive or personalized information and should be securely managed so only the requestor or authorized personnel can access or modify the status. Message alerts may be generated for service request updates, with links to online applications. Example Flow: Step 1: A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the citizen of their service request status. StepDocket No: 0053-701.600INTERNATIONAL APPLICATION2: The recipient clicks on the link to view or update the request status. Step 3 : An adaptive security sequence authenticates the requestor before granting access to the service request information.

[0385] In some embodiments, the messaging systems described herein may be used to distribute legal documents. For example, legal documents often contain sensitive or confidential information and can be securely managed to ensure only authorized recipients can access or modify the information. Messages that may be sent may include links to legal documents stored in online storage applications or shared locations for public or role-based access. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the recipient of an available legal document. Step 2: The recipient clicks on the link to view or download the document. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the legal document.

[0386] In some embodiments, the messaging systems described herein may be used to deliver public safety alerts. For example, public safety alerts involve critical information that can be securely managed to ensure that only the correct recipients receive and act on the information. Message notifications may be sent for public safety concerns, with links to response protocols in online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying citizens of a public safety concern. Step 2: The recipient clicks on the link to view and act on the response protocols. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the public safety document.

[0387] In some embodiments, the messaging systems described herein may be used to provide environmental monitoring updates. For example, environmental monitoring involves sensitive operational or geospatial data that should be securely managed so only authorized personnel can access or modify it. Message alerts may be sent for environmental monitoring, with links to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent updating the team on environmental monitoring results. Step 2: The recipient clicks on the link to view the monitoring report. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the environmental data.

[0388] In some embodiments, the messaging systems described herein may be used to distribute infrastructure project updates. For example, infrastructure projects involve critical operational data and timelines that can be securely managed to ensure that only authorized personnel can access or modify the information. Message updates may be sent on infrastructureDocket No: 0053-701.600INTERNATIONAL APPLICATION projects, with links to documents stored in online storage applications or shared locations. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent updating the team on infrastructure project progress. Step 2: The recipient clicks on the link to view the project details. Step 3: An adaptive security sequence authenticates the recipient before granting access to the project documentation.

[0389] In some embodiments, the messaging systems described herein may be used to send census participation reminders. For example, census participation involves sensitive and personalized information that can be securely managed to ensure process integrity. Message reminders may be sent for census participation, with links to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding citizens to participate in the census. Step 2: The recipient clicks on the link to complete the census form. Step 3 : An adaptive security sequence authenticates the recipient before allowing them to submit their census information.

[0390] In some embodiments, the messaging systems described herein may be used to provide government job notifications. For examplejob notifications that may include sensitive or personalized information and should be securely managed so only authorized users can access or act on it. Message alerts may be sent for government job openings, with links to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the recipient of a government job opening. Step 2: The recipient clicks on the link to view the job details and apply. Step 3: An adaptive security sequence authenticates the recipient before granting access to the job application form.

[0391] In some embodiments, the messaging systems described herein may be used to distribute budget allocation announcements. For example, budget allocations involve sensitive financial information that can be securely managed to ensure that only authorized personnel can access or modify the information. Message notifications may be sent describing budget allocations, with links to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a budget allocation. Step 2: The recipient clicks on the link to view the budget details. Step 3: An adaptive security sequence authenticates the recipient before granting access to the budget information.

[0392] In some embodiments, the messaging systems described herein may be used to provide client meeting reminders. For example, meeting reminders may involve sensitive clientDocket No: 0053-701.600INTERNATIONAL APPLICATION information that should be securely managed to ensure that only the intended client or team member can access the meeting details. Message reminders may be sent for client meetings, linked to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the client of an upcoming meeting. Step 2: The client clicks on the link to view or confirm the meeting details. Step 3: An adaptive security sequence authenticates the client before allowing them to access the meeting information.

[0393] In some embodiments, the messaging systems described herein may be used to provide invoice payment notifications. For example, payment notifications involve sensitive financial information that should be securely managed to prevent unauthorized access or disruptions. Message alerts may be sent for invoice payments, linked to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the client of an outstanding invoice. Step 2: The client clicks on the link to view and pay the invoice. Step 3 : An adaptive security sequence authenticates the client before allowing them to access the invoice payment information.

[0394] In some embodiments, the messaging systems described herein may be used to distribute project status updates. For example, project status updates involve critical operational data that should be securely managed to ensure that only authorized personnel can access or modify the information. Message notifications may be sent for project status, linked to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent updating the team on project status. Step 2: The recipient clicks on the link to view or update the project details. Step 3: An adaptive security sequence authenticates the recipient before granting access to the project information.

[0395] In some embodiments, the messaging systems described herein may be used for document sharing. For example, document sharing often involves sensitive or confidential information that should be securely managed to ensure that only authorized personnel or clients can access or modify the information. Messages may be sent with links to shared documents in online storage applications or locations for client collaboration. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the client of a shared document. Step 2: The client clicks on the link to view or collaborate on the document. Step 3: An adaptive security sequence authenticates the client before granting access to the shared document.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0396] In some embodiments, the messaging systems described herein may be used for appointment scheduling. For example, appointment scheduling involves sensitive client information that should be securely managed to ensure that only the intended client or team member can access or modify the appointment details. Message reminders may be sent for appointments, integrated with online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the client of an upcoming appointment. Step 2: The client clicks on the link to view or confirm the appointment details. Step 3 : An adaptive security sequence authenticates the client before allowing them to access the appointment information.

[0397] In some embodiments, the messaging systems described herein may be used to distribute client feedback surveys. For example, client feedback often involves sensitive or personalized information that should be securely managed to ensure the integrity of the feedback process. Message may be sent with links to online forms for client feedback. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent inviting the client to participate in a feedback survey. Step 2: The client clicks on the link to complete the survey. Step 3 : An adaptive security sequence authenticates the client before allowing them to submit the feedback.

[0398] In some embodiments, the messaging systems described herein may be used to provide contract renewal alerts. For example, contract renewals involve sensitive or personalized information that should be securely managed to ensure that only authorized personnel can access or modify the contract details. Message reminders may be sent for contract renewals, linked to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the client of an upcoming contract renewal. Step 2: The client clicks on the link to view and renew the contract. Step 3 : An adaptive security sequence authenticates the client before allowing them to access the contract information.

[0399] In some embodiments, the messaging systems described herein may be used to provide training session notifications. For example, training sessions often involve critical operational and compliance information that should be securely managed to ensure that only authorized personnel participate. Message reminders may be sent for professional training sessions, linked to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the team of an upcoming training session. StepDocket No: 0053-701.600INTERNATIONAL APPLICATION2: The recipient clicks on the link to view or confirm their participation in the training. Step 3: An adaptive security sequence authenticates the recipient before granting access to the training details.

[0400] In some embodiments, the messaging systems described herein may be used to send event invitations. For example, event invitations may involve sensitive or exclusive information that should be securely managed to ensure that only the correct recipients receive the invitation. Message invitations may be sent for professional events, linked to online applications. Example Flow: Step 1: A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent inviting the recipient to a professional event. Step 2: The recipient clicks on the link to RSVP or add the event to their calendar. Step 3 : An adaptive security sequence authenticates the recipient before allowing them to act on the event invitation.[00401J In some embodiments, the messaging systems described herein may be used for client proposal follow-ups. For example, client proposals often involve sensitive or personalized information that should be securely managed to ensure that only the intended client can access or modify the proposal details. Message reminders may be sent for following up on client proposals, linked to online documents. Example Flow:Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the client to review and act on a proposal. Step 2: The client clicks on the link to view or approve the proposal. Step 3: An adaptive security sequence authenticates the client before allowing them to access the proposal information.

[0402] In some embodiments, the messaging systems described herein may be used to deliver product release announcements. For example, product release announcements may involve sensitive or proprietary information that should be securely managed to ensure that only authorized personnel or customers can access the release details. Message updates may be sent for new product releases, linked to online websites. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent announcing a new product release. Step 2: The recipient clicks on the link to view the product details. Step 3: An adaptive security sequence authenticates the recipient before granting access to the release information.

[0403] In some embodiments, the messaging systems described herein may be used to deliver bug tracking alerts. For example, bug tracking involves sensitive technical information that should be securely managed to ensure that only authorized personnel can access or modify the tracking details. Message notifications may be sent for high-priority bugs, linked to onlineDocket No: 0053-701.600INTERNATIONAL APPLICATION applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a high-priority bug. Step 2: The recipient clicks on the link to view or update the bug tracking information. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the bug tracking data.

[0404] In some embodiments, the messaging systems described herein may be used to provide developer stand-up reminders. For example, stand-up meetings often involve critical operational and project data that should be securely managed to ensure that only authorized personnel can access or modify the meeting details. Message reminders may be sent for daily stand-ups, integrated with online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the team of a daily stand-up meeting. Step 2: The recipient clicks on the link to view or participate in the stand-up. Step 3: An adaptive security sequence authenticates the recipient before granting access to the stand-up information.

[0405] In some embodiments, the messaging systems described herein may be used to send code review notifications. For example, code reviews involve sensitive technical information that should be securely managed to ensure that only authorized personnel can access or modify the review details. Message alerts may be sent when code reviews are requested, linked to online documents. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a pending code review. Step 2: The recipient clicks on the link to view or participate in the code review. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the code review documentation.

[0406] In some embodiments, the messaging systems described herein may be used to provide system downtime alerts. For example, system downtime involves critical operational data that should be securely managed to ensure that only authorized personnel can access or modify the downtime details. Message notifications may be sent for planned system downtime, linked to schedules in online storage applications or locations. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of planned system downtime. Step 2: The recipient clicks on the link to view or update the downtime schedule. Step 3: An adaptive security sequence authenticates the recipient before granting access to the downtime information.

[0407] In some embodiments, the messaging systems described herein may be used to send security patch announcements. For example, security patches involve sensitive technicalDocket No: 0053-701.600INTERNATIONAL APPLICATION information that should be securely managed to ensure that only authorized personnel can access or implement the patch details. Message alerts may be sent for security patches, linked to detailed documentation in online storage applications or locations. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a security patch. Step 2: The recipient clicks on the link to view and implement the patch. Step 3: An adaptive security sequence authenticates the recipient before granting access to the patch documentation.

[0408] In some embodiments, the messaging systems described herein may be used to provide API integration updates. For example, API integration updates involve sensitive technical information that should be securely managed to ensure that only authorized personnel can access or modify the integration details. Message notifications may be sent for API updates, linked to developer documentation in online documents. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of an API integration update. Step 2: The recipient clicks on the link to view and implement the update. Step 3: An adaptive security sequence authenticates the recipient before granting access to the integration documentation.

[0409] In some embodiments, the messaging systems described herein may be used to support customer onboarding. For example, customer onboarding involves sensitive or personalized information that should be securely managed to ensure that only the intended customer can access or modify the onboarding details. Messages may be sent about onboarding steps for new customers, linked to online storage applications or location-based resources. Example Flow: Step 1: A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent welcoming the customer and providing onboarding instructions. Step 2: The customer clicks on the link to view and complete the onboarding process. Step 3: An adaptive security sequence authenticates the customer before granting access to the onboarding documentation.

[0410] In some embodiments, the messaging systems described herein may be used to deliver cloud infrastructure monitoring alerts. For example, cloud infrastructure monitoring involves sensitive technical and operational data that should be securely managed to ensure that only authorized personnel can access or modify the monitoring details. Message alerts may be sent for cloud infrastructure issues, linked to tracking in online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a cloud infrastructure issue. Step 2: The recipient clicks on the link to view or update the monitoringDocket No: 0053-701.600INTERNATIONAL APPLICATION information. Step 3: An adaptive security sequence authenticates the recipient before granting access to the cloud infrastructure data.

[0411] In some embodiments, the messaging systems described herein may be used to provide technology roadmap updates. For example, technology roadmaps involve sensitive technical and operational data that should be securely managed to ensure that only authorized personnel can access or modify the roadmap details. Message notifications may be sent for updates to the technology roadmap, linked to online storage applications or locations. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent updating the team on the technology roadmap. Step 2: The recipient clicks on the link to view or update the roadmap. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the roadmap documentation.

[0412] In some embodiments, the messaging systems described herein may be used to provide DevOps deployment reminders. For example, DevOps deployments involve sensitive operational and technical data that should be securely managed to ensure that only authorized personnel can access or modify the deployment details. Message reminders may be sent for deployment schedules, integrated with online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the team of an upcoming deployment. Step 2: The recipient clicks on the link to view or update the deployment schedule. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the deployment information.

[0413] In some embodiments, the messaging systems described herein may be used to conduct product feedback surveys. For example, product feedback often involves sensitive or personalized information that should be securely managed to ensure the integrity of the feedback process. Message may be sent with links to online forms for product feedback collection. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent inviting the customer to provide product feedback. Step 2: The recipient clicks on the link to complete the feedback survey. Step 3 : An adaptive security sequence authenticates the recipient before allowing them to submit their feedback.

[0414] In some embodiments, the messaging systems described herein may be used to provide client support ticket updates. For example, support tickets often involve sensitive or personalized information that should be securely managed to ensure that only authorized personnelDocket No: 0053-701.600INTERNATIONAL APPLICATION or clients can access or modify the ticket details. Message alerts may be sent for client support tickets, linked to resolutions in online storage applications or locations. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the client of an update to their support ticket. Step 2: The recipient clicks on the link to view or update the support ticket. Step 3: An adaptive security sequence authenticates the recipient before granting access to the support ticket information.

[0415] In some embodiments, the messaging systems described herein may be used to manage hardware inventory. For example, hardware inventory management involves sensitive operational data that should be securely managed to ensure that only authorized personnel can access or modify the inventory details. Messages notifications may be sent when there is low stock or some other trigger scenario. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of low hardware inventory. Step 2: The recipient clicks on the link to view or update the inventory. Step 3: An adaptive security sequence authenticates the recipient before granting access to the inventory information.

[0416] In some embodiments, the messaging systems described herein may be used to send version control notifications. For example, version control involves sensitive technical and operational data that should be securely managed to ensure that only authorized personnel can access or modify the version control details. Message notifications may be sent when new software versions are released, linked to release notes in online documents. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a new software version. Step 2: The recipient clicks on the link to view or update the version control information. Step 3: An adaptive security sequence authenticates the recipient before granting access to the version control documentation.

[0417] In some embodiments, the messaging systems described herein may be used to deliver performance monitoring alerts. For example, performance monitoring involves sensitive operational and technical data that should be securely managed to ensure that only authorized personnel can access or modify the monitoring details. Message notifications may be sent for performance monitoring issues, linked to detailed reports in online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a performance monitoring issue. Step 2: The recipient clicks on the link to view or updateDocket No: 0053-701.600INTERNATIONAL APPLICATION the monitoring report. Step 3: An adaptive security sequence authenticates the recipient before granting access to the performance monitoring information.

[0418] In some embodiments, the messaging systems described herein may be used to send user training session reminders. For example, user training sessions often involve critical operational and compliance information that should be securely managed to ensure that only authorized personnel participate. Message reminders may be sent for user training sessions, linked to online applications. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent reminding the team of an upcoming training session. Step 2: The recipient clicks on the link to view or confirm their participation in the training. Step 3 : An adaptive security sequence authenticates the recipient before granting access to the training details.[00419J In some embodiments, the messaging systems described herein may be used to send system upgrade notifications. For example, system upgrades involve sensitive operational and technical data that should be securely managed to ensure that only authorized personnel can access or modify the upgrade details. Message alerts may be sent for system upgrades, linked to upgrade schedules in online storage applications or locations. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a planned system upgrade. Step 2: The recipient clicks on the link to view or update the upgrade schedule. Step 3: An adaptive security sequence authenticates the recipient before granting access to the upgrade information.

[0420] In some embodiments, the messaging systems described herein may be used to deliver data breach response plans. For example, data breach response plans involve sensitive operational and security data that should be securely managed to ensure that only authorized personnel can access or modify the response details. Message notifications may be sent during data breaches, linked to response protocols in online storage applications or locations. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of a data breach. Step 2: The recipient clicks on the link to view or update the response plan. Step 3: An adaptive security sequence authenticates the recipient before granting access to the response plan.

[0421] In some embodiments, the messaging systems described herein may be used to send AI / ML model update alerts. For example, AI / ML model updates involve sensitive technical and operational data that should be securely managed to ensure that only authorized personnel canDocket No: 0053-701.600INTERNATIONAL APPLICATION access or modify the model update details. Message notifications may be sent for updates to AI / ML models, linked to documentation in online documents. Example Flow: Step 1 : A message (e.g., a SMS, MMS, RCS, push notification or similar) is sent notifying the team of an AI / ML model update. Step 2: The recipient clicks on the link to view or implement the update. Step 3: An adaptive security sequence authenticates the recipient before granting access to the model update documentation.

[0422] A number of states of a client device and / or security protocol may exist prior to sending a message. For example, a first state may include a Silent Network Authentication (SNA) pre-check process executed through an installed application on a user's computing device prior to dispatching any outbound message. This proactive authentication approach addresses technical challenges associated with real-time authentication latency and potential failure risks that occur when authentication requests are presented directly to users at the point of interaction. By performing authentication in advance of message delivery, the system significantly reduces user experience friction while maintaining robust security protocols.

[0423] The pre-validation mechanism of the first state provides additional technical advantages for regulatory and marketing messaging compliance. Specifically, the system enables message delivery decisions to be made based on metadata obtained during the carrier-level authentication response. For example, when a Mobile Network Operator (MNO) provides supplemental metadata such as device location information (e.g., time zone identifiers, country codes, or geographic coordinates), the system can automatically determine whether sending a particular message at a given time would risk violating compliance restrictions. Such restrictions may include prohibited local hours for marketing communications, cross-border regulatory constraints, or jurisdiction-specific messaging regulations.

[0424] The technical implementation of State 1 comprises three sequential steps that create a secure, pre-authenticated messaging pathway. In Step 1, a Silent Network Authentication (SNA) Verification Check is performed wherein the installed application on the user's device initiates a silent background SNA check with the Mobile Network Operator (MNO) or an authorized third- party verification service. This background process operates without user intervention and is designed to confirm possession of the registered phone number while verifying that the user's mobile identity corresponds to the intended recipient of subsequent messaging communications.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0425] The SNA verification process leverages carrier-grade authentication protocols that validate the user's mobile device against network registration records. Upon successful verification, the system receives a "Pass" confirmation from the MNO or third-party verification service, establishing that the user has been pre-authenticated for subsequent messaging interactions. This confirmation serves as a cryptographic proof of identity that can be embedded into subsequent message delivery mechanisms.

[0426] In Step 2, the "Pass" status resulting from the SNA check undergoes a secure tokenization and encryption process. The verification status is encapsulated into a secure token, such as a JSON Web Token (JWT) or equivalent structured authentication artifact, which contains the authentication result along with relevant metadata including timestamp, device identifier, and verification source information. This token structure enables the destination platform to validate not only the authentication status but also the recency and source of the verification.

[0427] The secure token is then encrypted using Advanced Encryption Standard (AES) or similar strong symmetric encryption protocols to ensure data integrity and confidentiality during transmission. In some embodiments, encryption keys may be derived from or bound to the user's subscription credentials, session state, or device-specific identifiers, ensuring that only the intended destination platform possesses the necessary decryption capabilities. The encryption process creates a tamper-evident payload that cannot be modified or forged without detection.

[0428] The encrypted token is embedded into a link payload that represents a secure gateway to the destination platform, which may comprise a web application, mobile application, or service endpoint. This link structure enables seamless transition from the messaging channel to the destination platform while carrying the pre-authenti cation credentials in a secure format.

[0429] In Step 3, the encrypted link containing the verification status is transmitted to the user within a message (e.g., a SMS, MMS, RCS, push notification or similar) through the messaging distribution system. The message format may be optimized for the specific messaging channel while maintaining the integrity of the embedded authentication token. When the user activates the link (e.g., by clicking or tapping), the destination platform receives the encrypted payload and initiates a decoding and validation process.

[0430] The destination platform decodes and validates the token to confirm that: (1) the SNA check was successfully completed, and (2) the user is authorized to proceed without additional redundant verification steps. This validation process may include verification of tokenDocket No: 0053-701.600INTERNATIONAL APPLICATION integrity, timestamp validation to ensure the authentication is within acceptable time bounds, and source validation to confirm the authentication originated from a trusted MNO or verification service.

[0431] The technical advantages of this pre-cleared user state include optimized security through carrier-based validation, enhanced user experience through reduced authentication friction at the moment of engagement, and improved regulatory compliance by providing cryptographic proof that authentication occurred prior to message delivery. This approach represents a significant improvement over conventional systems that use real-time authentication at the point of user interaction, thereby reducing system latency and improving overall user satisfaction while maintaining robust security standards.[00432J In accordance with another embodiment of the present disclosure, a second state may include a browser-based pre-message Silent Network Authentication (SNA) check that operates when a user does not have a relevant installed application present on their computing device. This alternative authentication pathway addresses the technical challenge of achieving secure pre-validation in environments where application-based authentication mechanisms are unavailable, while maintaining comparable security and user experience benefits to the installed application approach described in the first state.

[0433] The browser-based authentication system evaluates whether a web browser-based authentication pathway may be leveraged to achieve comparable pre-validation functionality. This approach recognizes that modem web browsers maintain sophisticated session management capabilities and can interface with carrier networks through standardized web APIs and protocols, enabling secure authentication without having to utilize dedicated application installations.

[0434] The technical implementation of the second state includes a three-step process that systematically evaluates authentication prerequisites and executes carrier-based validation through browser mechanisms. The first step involves Active Session Detection, wherein the system determines whether the user maintains an active browser session associated with the target destination platform, such as a web property or service endpoint. This detection process requests confirming two critical conditions to ensure authentication viability.

[0435] The first condition includes having the browser maintain an active authenticated session with the destination platform, indicating that the browser has established and preserved valid session tokens, cookies, or other authentication artifacts that demonstrate a persistentDocket No: 0053-701.600INTERNATIONAL APPLICATION connection to the target service. The second condition includes having the user use an active authenticated session on the destination platform, meaning the user has successfully logged in with valid credentials and the session remains within acceptable time bounds and has not been invalidated due to inactivity or security policies.

[0436] The session detection mechanism may utilize various technical approaches including examination of HTTP cookies, local storage tokens, session storage artifacts, or browser- stored authentication credentials. The system may also verify session validity through lightweight API calls to the destination platform to confirm that stored authentication artifacts remain valid and have not expired or been revoked.

[0437] The second step involves Carrier Network Availability assessment, wherein the system checks whether the user's computing device has an active carrier network connection available, as distinct from Wi-Fi connectivity. This technical feature ensures that a Silent Network Authentication verification handshake can be performed directly with the Mobile Network Operator (MNO) through cellular network protocols rather than through internet-based proxy connections that may not provide the same level of carrier-grade authentication assurance.

[0438] The carrier network detection process may involve querying device network APIs to determine the active network interface type, signal strength, and carrier identification information. This assessment ensures that the subsequent SNA request will be processed through authentic carrier infrastructure rather than potentially compromised or redirected network pathways that could undermine the security of the authentication process.

[0439] The third step comprises Background SNA Invocation, which occurs when the preceding conditions are satisfied and enables the system to initiate an SNA request through the carrier network. The SNA request process generates an sna.url endpoint that is returned as part of the MNO or third-party validation process response. This endpoint represents a carrier- authenticated resource that can validate the user's mobile identity through network-level protocols.

[0440] The sna.url endpoint is executed quietly in the background via a browser script, utilizing modern web browser capabilities such as fetch APIs, XMLHttpRequest mechanisms, or similar asynchronous communication protocols. This background execution approach allows the verification process to be completed seamlessly without requesting direct user interaction, preventing disruption to the user experience while maintaining the security benefits of carrierbased authentication.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0441] The browser script implementation may include error handling mechanisms to address potential network timeouts, carrier service unavailability, or authentication failures. Additionally, the script may implement retry logic with exponential backoff to handle temporary network conditions while avoiding excessive resource consumption or user experience degradation.

[0442] Upon successful completion of the background SNA process, the user is placed into a pre-authenticated state prior to message delivery, enabling secure message transmission while mitigating authentication friction during subsequent user engagement. The pre-authenticated state is maintained through secure token generation and encryption processes similar to those described in the first state, ensuring that the authentication result can be securely embedded into outbound messaging links.

[0443] This browser-based pathway provides a technical fallback mechanism to application-based pre-checks, ensuring that secure validation can still occur even in environments where no dedicated application is present on the user's device. The approach represents a significant technical advancement over conventional systems that utilize either installed applications or real-time authentication at the point of user interaction, thereby expanding the scope of secure, frictionless authentication while maintaining robust security standards across diverse device and software configurations.

[0444] In accordance with another embodiment of the present disclosure, a third state represents a scenario wherein a pre-message send Silent Network Authentication (SNA) check cannot be performed because the user's computing device does not currently maintain an active carrier network connection. This third state addresses the technical limitations inherent in carrierdependent authentication systems and provides fallback mechanisms to ensure continued system operation while maintaining security protocols under suboptimal network conditions.

[0445] The third state recognizes the dependency of SNA protocols on direct carrier network connectivity and implements appropriate system responses when such connectivity is unavailable. This state is characterized by specific process limitations that prevent the execution of pre-authentication procedures while ensuring that security measures remain intact through alternative authentication pathways at the point of user engagement.

[0446] The primary process limitation in the third state involves Carrier Network Unavailability, wherein the user's device is connected via Wi-Fi or another non-carrier networkDocket No: 0053-701.600INTERNATIONAL APPLICATION pathway rather than through direct cellular infrastructure. This network configuration creates a technical barrier to SNA implementation because the SNA protocol uses direct interaction with the Mobile Network Operator (MNO) over the carrier channel to perform the authentication handshake. Wi-Fi connections, while providing internet connectivity, do not provide the carrierlevel authentication capabilities necessary for SNA verification.

[0447] The technical architecture of SNA systems relies on carrier-grade authentication protocols that validate device identity through cellular network infrastructure, including base station identification, subscriber identity module (SIM) verification, and network registration status confirmation. These authentication mechanisms are inherently tied to the cellular network infrastructure and cannot be replicated or substituted through internet-based connections, regardless of the underlying network speed or reliability.

[0448] When carrier network connectivity is unavailable, the authentication handshake cannot be initiated because the system lacks access to the necessary carrier infrastructure APIs and authentication endpoints. This limitation extends beyond simple network availability to encompass the authentication architecture that uses direct carrier network protocols rather than internet-based proxy connections.

[0449] The second process limitation involves the inability to perform pre-authentication procedures, wherein without carrier connectivity, the system cannot execute a background SNA verification prior to message delivery. This limitation has cascading effects on the overall authentication workflow, as the pre-authentication process serves as the foundation for subsequent secure token generation and link embedding procedures.

[0450] As a direct consequence of the inability to perform pre-authentication, no precleared "Pass" token can be generated or embedded into outbound links. This represents a significant departure from the authentication workflows described in the first and second states, where pre-authentication enables the creation of secure tokens that eliminate the need for real-time authentication at the point of user engagement.

[0451] The absence of pre-cleared authentication tokens triggers a shift in the authentication strategy, moving from a proactive pre-authentication model to a reactive authentication model that occurs at the point of user interaction. This shift has implications for both system performance and user experience, as authentication latency is moved from the background pre-processing phase to the critical user engagement moment.Docket No: 0053-701.600INTERNATIONAL APPLICATION

[0452] The outcome of the third state results in the user remaining in a non-authenticated state at the time of message transmission. This non-authenticated state does not represent a security vulnerability but rather a different authentication pathway that maintains security through alternative mechanisms implemented at the destination platform rather than through pre-message authentication processes.

[0453] Subsequent access to the destination platform, such as through SMS, MMS, or RCS link activation, may trigger front-loaded or inline authentication at the point of engagement. This authentication process may utilize various techniques including one-time password (OTP) verification, multi-factor authentication, biometric verification, or other secure authentication methods available through the destination platform's security infrastructure.

[0454] The front-loaded authentication approach ensures that security protocols are preserved even when pre-authentication is not feasible, maintaining the overall security posture of the system while accommodating network connectivity limitations. This fallback mechanism represents a critical component of the system's resilience and ensures continued operation across diverse network environments and connectivity scenarios.

[0455] This fallback approach ensures that security is preserved even though user experience may include additional authentication steps at the point of clickthrough. The system prioritizes security integrity over user experience optimization in scenarios where carrier network limitations prevent the implementation of particular pre-authentication mechanisms, demonstrating the robust security-first design principles underlying the overall authentication architecture.

[0456] In accordance with another embodiment of the present disclosure, a fourth state may include a pre-message send Silent Network Authentication (SNA) check that cannot be performed because the user lacks both the necessary installed application that could support background SNA verification and an active carrier network connection used to complete the SNA handshake with the Mobile Network Operator (MNO).

[0457] The process limitations in this fourth state are comprehensive, as without the installed app, the system cannot initiate a local background SNA check. Similarly, without carrier network connectivity, the system cannot perform an over-the-air SNA verification through the MNO. As both conditions are unmet, the system has no...

Claims

Docket No: 0053-701.600INTERNATIONAL APPLICATIONWHAT IS CLAIMED IS:

1. A computer-implemented method for automated messaging distribution, the method comprising: receiving user data corresponding to a plurality of users and campaign parameters associated with a messaging campaign; classifying the plurality of users into two or more categories based at least in part on the user data; assigning a first category of users in the plurality of users to a just-in-time messaging process configured to determine a delivery time for messages based on user characteristics; assigning a second category of users in the plurality of users to a bulk messaging process configured to deliver messages according to a predefined schedule; providing outputs of the just-in-time messaging process and the bulk messaging process to a messaging scheduler and distribution hub; and causing, by the distribution hub and to a plurality of client devices associated with the user data, distribution of a campaign message corresponding to the messaging campaign across a plurality of communication channels according to the messaging scheduler.

2. The computer-implemented method of claim 1, wherein the user data comprises at least one of: historical engagement data, demographic information, behavioral activity data, location data, and user preferences.

3. The computer-implemented method of claim 1, wherein the classifying is performed by a machine learning model trained to predict a likelihood of user engagement.

4. The computer-implemented method of claim 1, wherein the just-in-time messaging process selects delivery times based on contextual information including at least one of: an obtained user location, obtained recent activity, or obtained client device status.

5. The computer-implemented method of claim 1, wherein the bulk messaging process is configured to schedule messages during predefined windows or blackout periods associated with regulatory or campaign rules.Docket No: 0053-701.600INTERNATIONAL APPLICATION6. The computer-implemented method of claim 1, wherein the campaign message is in an interactive message format including at least one of: one or more carousels, one or more selectable buttons, and one or more embedded shopping cart elements.

7. The computer-implemented method of claim 1, wherein the plurality of messaging channels comprise: short message service (SMS), multimedia messaging service (MMS), rich communication services (RCS), over-the-top (OTT) messaging, and social media platforms.

8. The computer-implemented method of claim 1, further comprising monitoring user responses to the campaign message and dynamically updating the classification of users into categories based on observed engagement.

9. A computer-implemented method of performing an adaptive security verification for a client computing device, the method comprising: in response to detecting a request to perform a security verification for the client computing device, determining one or more identifiers associated with the client computing device; determining, based on the one or more identifiers, a service status of the client computing device; generating, based on the determined service status, an access protocol; applying a security protocol to the access protocol, the security protocol including the one or more identifiers, and being selected based at least in part on the service status; generating an encrypted data packet comprising the applied security protocol and the one or more identifiers; and transmitting the encrypted data packet for use in verifying the client computing device through a network.

10. The computer-implemented method of claim 9, further comprising: causing use of the encrypted data packet to verify or reject the client computing device for one or more of: an online user engagement, an offline user engagement, a transaction, a payment processing step, and a third party navigation journey step.Docket No: 0053-701.600 INTERNATIONAL APPLICATION11. The computer-implemented method of claim 9, wherein: the one or more identifiers comprise at least one of: a keyword identifier, a client identifier, and a subscriber mobile number, in response to determining that the client computing device has a service status indicating a lack of association with a predefined carrier service; or the one or more identifiers comprise at least one of: an instance identifier, the client identifier, and an engaged client mobile identifier packet associated with the client computing device, in response to determining that the client computing device has a service status indicating an association with the predefined carrier service.

12. The computer-implemented method of claim 9, wherein the security protocol comprises a cookie-based identifier protection scheme.

13. The computer-implemented method of claim 9, wherein the security protocol comprises an encryption scheme including at least one of: a symmetric key encryption, an asymmetric key encryption, and a hash-based encryption.

14. The computer-implemented method of claim 9, wherein generating the encrypted data packet comprises correlating the one or more identifiers and generating a composite client signature based at least in part on the correlation and the service status.

15. The computer-implemented method of claim 9, wherein the access protocol is generated to be compatible with at least one of: a web application, a mobile application, and an application programming interface.

16. A system configured for automated messaging distribution : a processor; and memory configured to store program instructions, wherein, when executed by the processor, the program instructions cause the processor to perform operations comprising: receiving user data corresponding to a plurality of users and campaign parameters associated with a messaging campaign; classifying the plurality of users into two or more categories based at least in part on the user data;Docket No: 0053-701.600INTERNATIONAL APPLICATION assigning a first category of users in the plurality of users to a just-in-time messaging process configured to determine a delivery time for messages based on user characteristics; assigning a second category of users in the plurality of users to a bulk messaging process configured to deliver messages according to a predefined schedule; providing outputs of the just-in-time messaging process and the bulk messaging process to a messaging scheduler and distribution hub; and causing, by the distribution hub and to a plurality of client devices associated with the user data, distribution of a campaign message corresponding to the messaging campaign across a plurality of communication channels according to the messaging scheduler.

17. The system of claim 16, wherein the user data comprises at least one of: historical engagement data, demographic information, behavioral activity data, location data, and user preferences.

18. The system of claim 16, wherein the classifying is performed by a machine learning model trained to predict a likelihood of user engagement.

19. The system of claim 16, wherein the just-in-time messaging process selects delivery times based on contextual information including at least one of: an obtained user location, obtained recent activity, or obtained client device status.

20. The system of claim 16, wherein the bulk messaging process is configured to schedule messages during predefined windows or blackout periods associated with regulatory or campaign rules.

21. The system of claim 16, wherein the campaign message is in an interactive message format including at least one of: one or more carousels, one or more selectable buttons, and one or more embedded shopping cart elements.

22. The system of claim 16, wherein the plurality of messaging channels comprise: short message service (SMS), multimedia messaging service (MMS), rich communication services (RCS), over-the-top (OTT) messaging, and social media platforms.Docket No: 0053-701.600INTERNATIONAL APPLICATION23. The system of claim 16, wherein the operations further comprise monitoring user responses to the campaign message and dynamically updating the classification of users into categories based on observed engagement.

24. A non-transitoiy computer-readable storage medium for use in conjunction with a computer, the computer-readable storage medium storing program instructions that, when executed by the computer, cause the computer to carry out one or more operations comprising: receiving user data corresponding to a plurality of users and campaign parameters associated with a messaging campaign; classifying the plurality of users into two or more categories based at least in part on the user data; assigning a first category of users in the plurality of users to a just-in-time messaging process configured to determine a delivery time for messages based on user characteristics; assigning a second category of users in the plurality of users to a bulk messaging process configured to deliver messages according to a predefined schedule; providing outputs of the just-in-time messaging process and the bulk messaging process to a messaging scheduler and distribution hub; and causing, by the distribution hub and to a plurality of client devices associated with the user data, distribution of a campaign message corresponding to the messaging campaign across a plurality of communication channels according to the messaging scheduler.

25. The non-transitory computer-readable storage medium of claim 24, wherein the user data comprises at least one of: historical engagement data, demographic information, behavioral activity data, location data, and user preferences.

26. The non-transitory computer-readable storage medium of claim 24, wherein the classifying is performed by a machine learning model trained to predict a likelihood of user engagement.

27. The non-transitory computer-readable storage medium of claim 24, wherein the just-in- time messaging process selects delivery times based on contextual information including at least one of: an obtained user location, obtained recent activity, or obtained client device status.Docket No: 0053-701.600INTERNATIONAL APPLICATION28. The non-transitory computer-readable storage medium of claim 24, wherein the bulk messaging process is configured to schedule messages during predefined windows or blackout periods associated with regulatory or campaign rules.

29. The non-transitory computer-readable storage medium of claim 24, wherein the campaign message is in an interactive message format including at least one of: one or more carousels, one or more selectable buttons, and one or more embedded shopping cart elements.

30. The non-transitory computer-readable storage medium of claim 24, wherein the plurality of messaging channels comprise: short message service (SMS), multimedia messaging service (MMS), rich communication services (RCS), over-the-top (OTT) messaging, push notifications, and social media platforms.

31. The non-transitory computer-readable storage medium of claim 24, wherein the operations further comprise monitoring user responses to the campaign message and dynamically updating the classification of users into categories based on observed engagement.

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