System and method for integrating social media engagements as in-APP actions with real-time feedback

Abstract

The present disclosure offers a novel way for integrating social media engagements as actionable game moves, significantly enhancing user interaction and providing real-time feedback within a gaming environment. By bridging the gap between social media and gaming, this integration creates a dynamic and engaging user experience that can adapt and scale across platforms and applications. This integration not only enriches the gaming experience but also opens new avenues for marketing, community building, and user retention. This integration positions the game as a forward-thinking platform that leverages modern social media trends to create immersive and interactive content.

Description

Docket No. P14996WOOOTITLE : SYSTEM AND METHOD FOR INTEGRATING SOCIAL MEDIAENGAGEMENTS AS IN-APP ACTIONS WITH REAL-TIME FEEDBACKCROSS REFERENCE TO RELATED APPLICATIONS

[0001] This application claims priority under 35 U.S.C. § 119(e) to provisional patent application U.S. Serial No. 63 / 713,439, filed October 29, 2024. The provisional patent application is hereby incorporated by reference in its entirety herein, including without limitation: the specification, claims, and abstract, as well as any figures, tables, appendices, or drawings thereof.TECHNICAL FIELD

[0002] The present invention relates to the field of interactive software applications (also referred to herein as “app” or “apps”), such as games online, and, more particularly, to the integration of social media interactions as actionable instructions within a computerized environment, such as gaming platforms. Systems and methods for integrating social media engagements provide realtime feedback and rewards to users based on their social media engagements, enhancing user engagement and bridging the gap between social media platforms and gaming experiences.BACKGROUND

[0003] The background description provided herein gives context for the present disclosure. Work of the presently named inventors, as well as aspects of the description that may not otherwise qualify as prior art at the time of filing, are neither expressly nor impliedly admitted as prior art.

[0004] The proliferation of social media platforms has transformed the way individuals interact, share content, and engage with communities online. According to recent studies, over 4.2 billion people regularly use social media worldwide, with platforms like X experiencing significant user engagement growth annually, and 5.5 billion people are connected to social media in some way. However, the functionality of social media remains shallow. Brands cannot drive seamless conversations within these platforms and are instead forced to push audiences elsewhere to turn engagement to monetary gain. There is often a 97%-99% drop-off between social media awareness and engagement / sales. As a result, the present solutions in the art only try to decrease this drop off, often only by 1-2%, by significantly investing in advertisements that are less noticeable or more appealing. This has not only worked with only limited effect, but has allowed third party advertisers to control the look and feel of social media, further hindering the user experience.Docket No. P14996WOOO

[0005] Simultaneously, the global gaming industry has expanded rapidly, with an estimated 2.7 billion gamers contributing to a market value exceeding $160 billion. Despite this growth, there remains a disconnect between social media interactions and gaming experiences. Traditional gaming systems often operate independently of social media activities, missing opportunities to leverage user engagements on platforms like X to enrich gameplay. Existing solutions lack seamless integration, resulting in missed opportunities for enhanced user engagement, retention, and satisfaction.

[0006] Moreover, with the increasing importance of data privacy and protection, systems need to comply with various regional regulations such as the General Data Protection Regulation (GDPR) in the European Union and the California Consumer Privacy Act (CCPA) in the United States. Ensuring compliance with these regulations is critical for user trust and legal operation.

[0007] There is a need in the art for a system that bridges this gap by integrating social media actions as inputs for software applications, driving awareness into action directly on social media.SUMMARY

[0008] The present invention provides a comprehensive system and method for integrating social media actions — specifically engagements on platforms like X — as game moves within a gaming environment. The system monitors specific social media interactions, verifies their authenticity and eligibility, and processes them to trigger in-game events, rewards, or actions. Users receive real-time feedback based on their social media activities, enhancing engagement and creating a dynamic link between social media and gaming.

[0009] The following objects, features, advantages, aspects, and / or embodiments are not exhaustive and do not limit the overall disclosure. No single embodiment need provide each and every object, feature, or advantage. Any of the objects, features, advantages, aspects, and / or embodiments disclosed herein can be integrated with one another, either in full or in part.

[0010] It is a primary object, feature, and / or advantage of the present disclosure to improve on or overcome the deficiencies in the art.

[0011] It is a further object, feature, and / or advantage of the present disclosure to provide a gaming engine or a gaming platform with real-time verification and a reward mechanism, thereby immediately processing and acknowledging user actions. This can help provide the use instant gratification and encourages continued engagement.

[0012] It is a further object, feature, and / or advantage of the present disclosure to integrate social media actions as actions and inputs for software applications, such as game moves for games.Docket No. P14996WOOO

[0013] It is a further object, feature, and / or advantage of the present disclosure to allow users’ online interactions to have meaningful impacts within a computerized environment.

[0014] It is a further object, feature, and / or advantage of the present disclosure to enhance the user experience or an overall user experience. Thus, it can be a great benefit for the innovative, social applications described herein to live entirely and / or be integrated completely within existing platforms. Such innovative, social applications can also be free from redirects, signups, and downloads.

[0015] It is a further object, feature, and / or advantage of the present disclosure to increase user engagement on both the user platform and the social media platform. Such innovative, social applications can also utilize every like, comment, and / or share, instantly. The result is an instant interaction and viral distribution: a revolutionary growth engine where engagement does not just spread content, but directly drives customers, sells products, and grows revenue.

[0016] It is a further object, feature, and / or advantage of the present disclosure to create new opportunities for interactive and dynamic content. For example, a layer of app-like interactivity on top of social media through artificial intelligence (Al) powered replies and next-generation engagement tracking. The Al-powered posts can turn comments into sales flows, signups, demos, games, and rewards.

[0017] It is still yet a further object, feature, and / or advantage of the present disclosure to integrate a virtual economy (e.g. a gaming economy) directly impacted by the social media actions of the user. Examples of said integration can be to establish a universal credit system with app-level monetization, ensuring scalability and recuring revenue. Examples of awarded computerized credits can include, but are not limited to: loyalty points, virtual currency (’’nugget claims”), ingame items, or access to special events. The virtual economy can generate the virtual rewards described herein, automatically and instantly, for a broad range of social media tasks, including but not limited to: likes, comments, and shares — which boosts retention and conversations. In other words, computerized virality is combined with affiliate sales, enabling brands to automatically track and reward accounts that actually drive conversations.

[0018] It is still yet a further object, feature, and / or advantage of the present disclosure to allow for scaling and flexibility. The engine / platform is preferably designed to handle high volumes of data and adaptable to various social media platforms, social media applications, and gaming genres. Additionally, all persons and / or companies are given the ability to launch innovative, social applications that utilize every interaction to generate said credits. Creators can top up based on usage, with purchases buying and burning the innovative, social application, driving value backDocket No. P14996WOOO into the ecosystem. Essentially, a platform is built where anyone can launch their own innovative, social application directly onto social media.

[0019] It is still yet a further object, feature, and / or advantage of the present disclosure to comply with all applicable laws and regulations. An example of data compliance would be the adherence to data protection regulations (e.g., GDPR, CCPA), platform policies, and implementation of robust security measures to protect user data.

[0020] It is still yet a further object, feature, and / or advantage of the present disclosure to require secure authentication, and / or to selectively pull information only from publicly available posts. An example of such secure authentication would be the utilization of OAuth protocols to securely link users’ social media accounts with their gaming profiles, ensuring that only authorized actions affect the game.

[0021] It is still yet a further object, feature, and / or advantage of the present disclosure to provide robust mechanisms to manage deleted posts, private accounts, rate limiting, and other potential issues.

[0022] It is still yet a further object, feature, and / or advantage of the present disclosure to adapt to policy platform changes. The system is designed to adapt to changes in social media platform APIs and policies, ensuring continuous operation and compliance.

[0023] It is still yet a further object, feature, and / or advantage of the present disclosure to provide enhanced user engagement by linking social media activities to tangible in-game rewards, users are incentivized to be active on both platforms.

[0024] It is still yet a further object, feature, and / or advantage of the present disclosure to innovate gaming experiences by providing a unique blend of social media interaction and gaming, offering a novel experience that differentiates a game in the market.

[0025] It is still yet a further object, feature, and / or advantage of the present disclosure to provide for a more organic marketing mechanism, which increases the game’s visibility through usergenerated content on social media, serving as a form of viral marketing.

[0026] It is still yet a further object, feature, and / or advantage of the present disclosure to provide data insights by collecting valuable data on user behavior and preferences, informing future game development and marketing strategies.

[0027] It is still yet a further object, feature, and / or advantage of the present disclosure to allow for community building by fostering a sense of community as players see their social media actions impacting the game world and shared experiences.

[0028] The application engine, gaming engine, and platforms disclosed herein can be used in a wide variety of applications. For example, the system supports various embodiments, includingDocket No. P14996WOOO integration with different social media platforms and game types, expanding its applicability and reach.

[0029] It is preferred the gaming engine / platform be safe to use, cost effective, and data compliant. For example, the gaming engine or a gaming platform can require secure authentication, selectively pull information only from publicly available posts, be set up under a variety of different commercialization approaches (e.g., subscription-based, supported by advertisements, etc.).

[0030] At least one embodiment disclosed herein comprises a graphical user interface that has a distinct aesthetic appearance. Ornamental aspects included in such user interfaces can help capture a consumer’s attention and / or identify a source of origin of a product being sold. Said ornamental aspects will not impede functionality of the gaming engine / gaming platform.

[0031] Methods can be practiced which facilitate use, manufacture, assembly, maintenance, and repair of the gaming engine / platform which can accomplish some or all of the previously stated objectives.

[0032] The gaming engine / platform described in any one or more of the preceeding paragraphs can be incorporated into other systems which accomplish some or all of the previously stated objectives.

[0033] These and / or other objects, features, advantages, aspects, and / or embodiments will become apparent to those skilled in the art after reviewing the following brief and detailed descriptions of the drawings. The present disclosure encompasses (a) combinations of disclosed aspects and / or embodiments and / or (b) reasonable modifications not shown or described.BRIEF DESCRIPTION OF THE DRAWINGS

[0034] Several embodiments in which the present disclosure can be practiced are illustrated and described in detail, wherein like reference characters represent like components throughout the several views. The drawings are presented for exemplary purposes and may not be to scale unless otherwise indicated.

[0035] Figure 1 shows a flowchart illustrating the overall system architecture and data flow between the user’s social media actions and the gaming environment.

[0036] Figure 2 shows a sequence diagram depicting the X OAuth authentication flow.

[0037] Figure 3 shows a sequence diagram showing the process of submitting and verifying a post for in-game rewards.

[0038] Figure 4 shows an example of a gameplay user interface.Docket No. P14996WOOO

[0039] Figure 5 shows a system architecture block diagram that depicts the overall architecture of the gaming platform as a schematic block diagram of interrelated modules.

[0040] Figure 6 shows an overall process flowchart evidencing social media action to in-game outcome.

[0041] Figure 7 shows a sequence diagram detailing the secure OAuth authentication process by which a player links their social media account to the game.

[0042] Figure 8 shows a sequence diagram illustrating how a player’s social media post is submitted and processed to trigger an in-game reward.

[0043] Figure 9 illustrates the automated background process that continuously monitors the social media platform for game-related user engagements, ensuring that even if players do not manually submit their posts, their qualifying actions can still be captured and rewarded.

[0044] Figure 10 illustrates a graphical user interface screen in the game for linking a player’s social media account.

[0045] Figure 11 shows a mockup of an in-game screen where the player can submit a link to their social media post to claim a reward.

[0046] Figure 12 depicts how the game provides immediate feedback to the player when a social media action has triggered an in-game effect.

[0047] Figure 13 provides a system-level diagram of the physical or logical network architecture supporting the invention.

[0048] Figure 14 illustrates a conceptual diagram highlighting the flexibility and broad applicability of the invention across different social media platforms and game types.

[0049] An artisan of ordinary skill in the art need not view, within isolated figure(s), the near infinite distinct combinations of features described in the following detailed description to facilitate an understanding of the present disclosure.DETAILED DESCRIPTION

[0050] The present disclosure is not to be limited to that described herein. Mechanical, electrical, chemical, procedural, and / or other changes can be made without departing from the spirit and scope of the present disclosure. No features shown or described are essential to permit basic operation of the present disclosure unless otherwise indicated.

[0051] A real-time, secure, social reward gaming system can comprise, for example, one or more of the following interconnected modules: (i) a frontend interface where users interact with the game, submit social media links, and receive feedback, said interface can be built using technologies like Re- act.js for dynamic and responsive user experiences; (ii) an authenticationDocket No. P14996WOOO module, such as those that utilize OAuth protocols (e.g., OAuth 1.0a for X) to securely authenticate users and link their social media accounts to their gaming profiles. Ensures secure handling of user credentials and tokens; (iii) a social media monitoring module, such as those that interfaces with social media APIs (e.g., X API v2) to monitor specific user engagements, such as posts, quote posts, and replies related to game events; (iv) a verification engine, such as those that validates the authenticity and eligibility of social media actions by cross-referencing with predefined criteria and stored data. Ensures that actions are legitimate and meet the game’s requirements; (v) a game integration module, such as those that process verified social media engagements and translates them into in-game actions, rewards, or events. Directly impacts the game economy and user progression; (vi) a real-time feedback system that provides immediate responses to users based on their social media engagements, enhancing the user experience through instant notifications and updates; (vii) a database management system that stores user data, social media interactions, game state, and other relevant information, which can utilize technologies like PostgreSQL managed via Prisma ORM for robust data handling; (viii) a background processing module, such as those that can handle asynchronous tasks like continuous monitoring of social media engagements, updating the game state, and managing scheduled events, which can further ensure smooth operation without affecting real-time performance; (ix) a security and compliance module that implements data protection measures, encryption standards, and compliance with regulations like GDPR and CCPA, thereby enabling managing user consent and data privacy.

[0052] An operational workflow shown in Figure 1 comprises the following three interrelated processes in one example implementation of the real-time, secure, social reward gaming system described above. The process on the left side shows a social media monitoring module continuously monitoring specific social media engagements related to the game. Using the X API, the module fetches data on user actions such as quote posts and replies that mention certain keywords, hashtags, or account handles associated with game events. Rate limiting and error handling can be controlled by implementing mechanisms (e.g., Bottleneck) to comply with API rate limits and handle potential errors or exceptions.

[0053] A user authentication process is shown on the left-side of the middle process. The users initiate authentication by connecting their social media account to the game via the user interface module. The authentication module employs OAuth protocols (e.g. , OAuth 1 ,0a for X) to securely link the user’s social media account to their gaming profile. Upon successful authentication, the system stores the user’s social media identifiers (e.g., X username and user ID) in the database management system.Docket No. P14996WOOO

[0054] The right-side of the middle process is a verification process. The verification engine validates the fetched social media engagements to ensure they meet eligibility criteria. Eligibility criteria is described thus: (1) the action originates from an authenticated user; (2) the content includes specific keywords, hashtags, or mentions; (3) the action has not been previously processed; and (4) the action is within a valid time frame or event window. Rate limiting and error handling can be controlled by implementing mechanisms (e.g., Bottleneck) to comply with API rate limits and handle potential errors or exceptions.

[0055] An even more specific implementation is where there is a user-initiated submission, as specifically shown and indicated by the portion of the process from “User Submits URL” onward. Users can manually submit URLs of their social media actions for immediate verification and reward. The implementation can be described thus: (1) the system checks if the user is connected to their social media account; (2) if not connected, it prompts the user to authenticate via the authentication module; (3) upon connection, the user submits the URL, which is then processed by the verification engine; and (4) valid submissions result in immediate rewards and feedback.

[0056] A processing and rewarding system is implemented where claims are not rejected (e.g. a post is valid). Once verified, the social media action is processed to trigger in-game rewards or events. One example game integration is described thus: (1) nugget claims: increments the user’s virtual currency or resource count; (2) raffle tickets: adds entries to in-game lotteries or special events; and (3) item unlocks: grants access to special items or game areas. The database update records the transaction in the database management system, ensuring data integrity and enabling audit trails.

[0057] The real-time feedback system notifies the user of the successful integration of their social media action. One such implementation is described thus: (1) in-game notifications: pop-up messages or alerts within the game; (2) email alerts: automated emails confirming the reward or action; and (3) dashboard updates: visual indicators on the user’s profile or dashboard. A user experience enhancement provides immediate feedback and encourages continued engagement and provides satisfaction.

[0058] A background process is shown on the right of Figure 1 and results from a background processing module handles ongoing tasks such as monitoring new social media engagements and updating eligibility statuses. One such implementation is described thus: (1) periodic polling of the X API to fetch new engagements; (2) logging actions in the database management system; and (3) updating user eligibility for rewards based on new data.

[0059] A security and compliance process is described thus. Data protection implements encryption for data in transit (SSL / TLS) and at rest. Sensitive information like tokens and personalDocket No. P14996WOOO identifiers are securely stored. The system obtains explicit user consent for data processing, adhering to GDPR, CCPA, and other data protection regulations. Platform compliance ensures all interactions with social media platforms com- ply with their terms of service, including proper use of APIs and respecting user privacy settings. Access control utilizes role-based access control (RBAC) to restrict access to sensitive system components. The system can even include mechanisms to monitor changes in social media platform APIs and policies. The system can automatically adjust API calls, update compliance protocols, and notify administrators of significant changes to maintain uninterrupted service.

[0060] The technical implementation is detailed with reference to Figure 2 and is described thus. The social media API integration process uses API. The API usage, in one such example, can utilize X’s REST and Streaming APIs to fetch real-time data. A data retrieval process extracts necessary information such as post ID, user ID, content, and timestamps. Error handling occurs by implementing retries and fallbacks for API call failures. Rate limiting occurs where tools like Bottleneck to manage API call rates and prevent exceeding limits.

[0061] The authentication module utilizes OAuth Flow, which securely handles user authentication using OAuth 1.0a (for X). Session management stores session tokens securely, possibly using Redis or secure cookies. Data security is established by encrypting sensitive information and complies with data protection regulations like GDPR. For social media integration, the system can utilize the latest APIs provided by the platforms (e.g., X API v2), ensuring compliance and optimal functionality. OAuth 2.0 is employed for secure authentication across multiple platforms. Redis is used for caching and session management to enhance performance.

[0062] Turning to Figure 3, the verification engine accomplishes data extraction, by parsing post content to check for required keywords, hashtags, or mentions. Duplicate checking ensures that the same social media action is not processed multiple times. Eligibility checks validate that the action meets all criteria for triggering in-game events. Error messages provide clear feedback to the user in case of invalid submissions.

[0063] The game integration module utilizes reward logic, and contains the business logic for assigning rewards based on verified actions. Event triggers can initiate in-game events, such as special challenges or unlocks. The system is designed to handle high volumes of concurrent processing without performance degradation.

[0064] The real-time feedback system has several communication channels. For example, the real-time feedback system can use websockets or real-time messaging protocols for instant updates. The user interface updates immediately reflect changes in the user’ s game state or profile.Docket No. P14996WOOOCustomizable settings allow users to choose how they receive feedback, for example through a “notification settings” widget or its equivalent.

[0065] The database management system has a technology stack that utilizes databases like PostgreSQL, managed via ORM tools like Prisma. Data models define for users, social media actions, game states, re- wards, and more. Data integrity enforces constraints and relationships to maintain consistent and accurate data. The system further supports horizontal scaling to accommodate growing user bases.

[0066] In a preferred embodiment, the comprehensive system and method for integrating social media actions within a gaming environment involves using Node.j s and Express.j s for the backend server to handle scalability and asynchronous operations. The frontend is developed using React.js to provide a responsive and interactive user experience. PostgreSQL, managed via Prisma ORM, is used for database operations due to its robustness and compatibility with complex queries.

[0067] To address potential challenges arising from changes in social media API policies, the system includes the following features: (a) a modular API interface: the social media monitoring module and authentication module are designed with a modular architecture, allowing for quick updates or replacements of API calls without affecting the rest of the system; (b) a policy monitoring service: a background service regularly checks for updates to platform policies and API documentation. Administrators are alerted to significant changes, and the system can automatically adjust configurations where possible; and (c) fallback mechanism: in cases where API functionality is reduced or limited, the system can switch to alternative methods of data retrieval or temporarily suspend certain features while maintaining core functionality.

[0068] Edge case handling occurs as follows. For deleted posts, since the system logs posts upon detection, it can process and verify actions even if the post is later deleted. For private accounts, only processes actions from authenticated users with public profiles. For duplicate submissions, the verification engine checks for prior processing to prevent duplicate re- wards. For API errors, the system implements retries with exponential backoff in case of API call failures. For rate limiting, the system adheres to the API rate limits using appropriate tools and strategies. For platform policy changes, the system monitors for for updates to API policies and adjusts the system accordingly to maintain compliance.

[0069] Scalability and performance can be improved through (1) load balancing, which distributes incoming requests across multiple servers; (2) asynchronous processing, which uses asynchronous programming models to handle I / O-bound operations efficiently; and (3) caching, which implements caching layers to reduce redundant database queries and API calls.Docket No. P14996WOOO

[0070] The present disclosure addresses many security considerations. For example, sensitive data is encrypted both in transit (using SSL / TLS) and at rest. The system further (i) employs rolebased access control (RBAC) to restrict system access; (ii) maintains logs for monitoring and auditing purposes; and (iii) and adheres to relevant data protection laws and platform policies.

[0071] Extensions to the system include, but are not limited to: an advanced reward system, which implements dynamic rewards based on the reach or virality of the user’s social media actions; an Al and machine learning system, which uses artificial intelligence to personalize user experiences, predict engagement trends, and optimize reward distribution; community events, which are organized in-game events triggered by collective social media actions from the community; integration with emerging technologies, such as those that incorporate blockchain for secure transactions and NFTs as in-game assets; and educational applications, such as those that adapt the system for educational games that reward learning activities shared on social media.

[0072] The related social media monitoring process is described thus. The system engages in automated monitoring, and periodically polls the X API for quote posts of a monitored post. When new quote posts are found, they are logged in the database as potentially eligible. The player can also submit the URL of their post via the game’s interface.

[0073] Regardless of how the system receives the post, the system extracts the post ID from the submitted URL. The backend fetches the post details using the X API. The system then confirms that (i) the post belongs to the authenticated user; (ii) the post contains the required pickaxe emoji if it’s a reply; (iii) the post is either a quote of the monitored post (as logged by the automated monitoring) or a reply to an eligible quote post; and (iv) the user has not already claimed a reward for this specific interaction. Thereafter, the system logs eligibility. For example, the system updates the post’s status in the database as either VALID QT or REWARDED.

[0074] If the post is deemed eligible and rewarded: (i) the system increments the player’s ’’nugget claim” count in the database; and (ii) the post is a reply to another eligible post, the system also rewards the author of the parent post. The system then responds by sending a success message to the frontend, confirming the post sub- mission and any rewards given. The real-time feedback system sends an in-game notification congratulating the player. The player’s profile is updated to reflect the new nugget count and raffle entry. The transaction is recorded in the database management system for future reference and auditing. In some embodiments, it is important to note that while the system automatically monitors and logs quote posts, reward processing can still require players to submit their post URLs for verification.

[0075] In one example scenario embodied in the graphical user interface shown in Figure 4, a player engages with a post related to the ’’Eureka” game by quoting a monitored post or replyingDocket No. P14996WOOO to an eligible quote post with a comment including a pickaxe emoji. To illustrate the concrete usecase of the system, Figure 4 shows a sample game scenario dubbed “Nugget Deposit” in a hypothetical game “Eureka.” In this scenario, the game creates a special event post on social media and encourages players to engage with it. Figure 4 is a user interface representation, which is a snapshot of a social media feed or an in-game prompt referencing a social post.

[0076] Figure 4 includes a message that reads, for example: “EUREKA! YOU’VE CLAIMED A NUGGET DEPOSIT! Quote retweet this post to claim a Nugget Deposit for your own! Earn a Nugget from everyone who mines your Deposit! (Replies to your post including a [pickaxe emoji] also count.)” This message is one example of a message that can be seen by the user on the social media platform or echoed in-game. The idea is that the game is running a promotion where if a user quote-retweets an official post, they get a “nugget deposit” reward in-game, and furthermore, if other players reply to that user’s post with a specific emoji (the pickaxe), the original poster gets additional rewards (a nugget from each, in the theme of a gold mining game perhaps).

[0077] Figure 4 thus depicts a multi-layered engagement: the official game post, by the game’s account, and a prompt for the user’s action: the quote-retweet. Figure 4 implies the chain effect. A user’s quote-tweet can itself receive replies with the designated emoji, which the system would also detect and reward. In terms of system operation, this scenario leverages the monitoring module extensively: the system monitors for quote-tweets of the official post, by logging them as eligible engagements for whoever made them. The system also monitors for replies to those quotetweets that contain the emoji, potentially rewarding both the replier and the original quoter. The “Nugget Deposit” concept is one example of how the modular system can support complex game mechanics that span social interactions.

[0078] When the user participates, they would use the system as normal: link their account (see Figure 10 and related discussion, infra), make the required social media action (e.g., a quotetweet with a game-provided hashtag or just quoting the specific post ID), and submit the post (see Figure 11 and related discussion, infra) or rely on background monitoring to catch it. The verification engine would check that the quote-tweet indeed is quoting the correct post. For example, the verification engine could verify the quote-tweet’s “in-reply -to” or “quote of’ field matches the official post ID) and that the user has not already claimed it. If valid, the integration module can give the reward “Nugget Deposit” to the user’s account (which could be represented as some virtual credit or item in the game). The feedback module would then pop up a message like “Congratulations! Your quote post was successful, you got a Nugget Deposit.” Additionally, when another user replies to that quote with the pickaxe emoji, the system could verify that reply, see that it’s a reply to an already logged “deposit” and reward the original author accordingly.Docket No. P14996WOOO

[0079] Figure 4 is thus included to emphasize that the invention is versatile in the types of social interactions it can leverage. Figure 4 is not to limit the system to a simple one-to-one actionreward; rather Figure 4 shows the system can handle chained interactions and community-driven events. This demonstrates an embodiment where the social media engagement has a game-context narrative around it, such as through mining nuggets via tweets. It also shows that the system can create viral loops: one player’s action (quote post) invites others to respond (replies with emoji), and all of this drives more engagement both on social media and in the game (as users compete or collaborate for rewards).

[0080] Prior applications do not have this kind of cross-platform viral game mechanic. Some have virality but within another platform’s invite / share system. Livestreaming platforms that host communal games can attract many participants, but not in a personalized game progression sense. The “Nugget Deposit” example highlights how the present system can enable novel game designs where social sharing is directly gamified with multi-step verification logic.

[0081] Such a technical implementation for the scenario of Figure 4 can utilize rules in the verification engines described herein. For example, the rules in the verification engine can become slightly more complex. The engine can identify if a post is a quote of the specific event post, as this can be done by storing the event post ID in a configuration and checking against it. For replies, the verification can check if the parent tweet’s author is a linked player with an active deposit, and that the reply contains the emoji. The description of Figure 4 thus shows a benefit of the extension of the base system, demonstrating it can handle multi-user interactions securely, since each participant still must be authenticated and individually verified. The associated database would log not only the original quote posts but also link replies to those and ensure no duplicate rewards (e.g. , they don’t reward the same reply twice or the same responder multiple times if not allowed). All of this remains within the scope of the disclosed modules, showing that they are flexible building blocks for many game scenarios.

[0082] The invention supports various alternative embodiments to broaden its applicability. The system supports multi-platform integration. The system can be adapted to integrate with other social media platforms such as Facebook, Instagram, TikTok, and Reddit. This can achieved by modifying the Social Media Monitoring Module and Authentication Module to interface with the APIs and authentication protocols of the respective platforms. The present disclosure is also applicable to a wide range of game genres, including role-playing games (RPGs), strategy games, casual games, and educational games. The game integration module described above can be customized to suit the specific mechanics and reward systems of different game types.Docket No. P14996WOOO

[0083] Pivoting to Figures 5-14, the system can be adapted for broad use in marketing campaigns, educational tools, or social initiatives where social media engagement is valuable. In such embodiments, social media actions could trigger rewards like discounts, access to exclusive content, or charitable donations.

[0084] Figures 5-14 describe a system and method for integrating social media engagements as actionable inputs into a computerized environment, such as a software application (an “app”) or a game, and to reward the user in real-time for their use of social media. In general, the system allows users’ external social media actions to produce corresponding in-application effects. For example, a player’s post or reply on a social network (e.g., a tweet on platform X™ (formerly Twitter)) can trigger an event or reward inside a game almost immediately. The system continuously monitors social media platforms for qualifying user engagements, verifies that each detected engagement meets predefined criteria, and then translates the verified engagement into an in-application action or reward. Simultaneously, a real-time feedback module notifies the user within the application of the result. For instance, the result can be a pop-up message confirming that their post has earned a reward.

[0085] This creates a dynamic link between a social media activity and the application’s state, addressing the technical problem that conventional applications and games do not have a verified, real-time engagement-triggered feedback loop. Unlike prior social games that depended solely on in-platform actions or unverified external inputs, the disclosed system securely authenticates each user’s social account and processes off-platform engagements in a controlled, asynchronous manner to update the application state. By doing so, the system improves user engagement on both the social platform and the application, providing immediate gratification and new interactive possibilities that were lacking in earlier systems.

[0086] Figure 5 shows a system architecture block diagram for an overall architecture 100 of an application platform of interrelated modules. These modules work in concert to enable the integration of external social media actions into the application environment. Figure 5 highlights the dedicated components that enable integration of external social media engagements into the application, which contrasts with traditional application architectures that operate in isolation from social networks. The modules (drawn as labeled blocks) and their interactions are described thus.

[0087] The user interface module 102 forms part of a frontend where players interact with the application, link their social media accounts, submit social post links, and receive feedback. The user interface module 102, according to non-limiting examples, can be a game client on a personal computer (PC), console, or mobile device, providing input fields and displays for social-linked features.Docket No. P14996WOOO

[0088] The authentication module 104 (OAuth) handles secure authorization with the social media platform. It uses protocols like OAuth 1 ,0a (for X / T witter) to safely connect a user’s social media account to their user profile, ensuring only authorized social actions 106 are considered.

[0089] The verification engine 108 validates each retrieved social media action against predefined eligibility criteria. It checks that the action originates from an authenticated player, contains required keywords / hashtags, has not been processed before, and falls within any event time window. This ensures only legitimate, qualifying social posts can affect the application.

[0090] The social media monitoring module 110 listens for relevant user engagements on the social platform via the social media application programming interface (API). For example, the social media monitoring module 110 tracks the player’ s posts, replies, or tags related to application events in real time, bridging the external platform with the application.

[0091] The integration module 112 translates verified social media actions into in-application effects or rewards. For instance, a valid post might grant virtual currency, unlock an item, or trigger a special event in the virtual world. The integration module 112 directly interfaces with the virtual economy of an application engine to apply the outcomes.

[0092] The real-time feedback system 114 provides immediate acknowledgment and rewards to the player once their social action is processed. The real-time feedback system 114 triggers in-app notifications, updates player stats, and can send confirmations (e.g. via on-screen message or email) so the user instantly knows their engagement had an effect.

[0093] The database management 116 includes a data storage system that persistently holds user profile links (application account to social account mapping), pending and processed social actions, application state, and reward records. The database, in one non-limiting example, can be a relational database or similar, ensuring reliable tracking of each social engagement and its corresponding in-app result.

[0094] The background processing module 118 handles asynchronous tasks in the system. It runs continuous checks for new social media events that are posted on the social media platform 200 and performs batch updates to data within the database and / or systems within the overall architecture 100 of an application platform of interrelated modules (even those not adjacent to the background processing module 118 in the figure), without interrupting real-time operations. This design allows the platform to handle high volumes of data smoothly by offloading work to background workers.

[0095] The security and compliance module 120 enforces data protection, privacy, and platform policy compliance. It secures communications (e.g. using SSL / TLS encryption) and ensures the system adheres to regulations like GDPR and CCPA as well as social platform terms of service.Docket No. P14996WOOOThe security and compliance module 120 manages user consent and protects personal / token data, which was not a concern in earlier social games but can be particularly beneficial in this integrated system.

[0096] A wholistic description of the architecture 100 follows. The user interface (UI) module 502 provides a frontend interface through which users interact with the application (e.g., an application client on PC, console, or mobile). The user interface module 102 allows users to initiate social account linking, submit social media post URLs, and view feedback and rewards. The authentication module 104 is configured to securely link the user’s social media account to their profile in the application via an OAuth-based process. The authentication module 104 obtains an authenticated token (e.g., an OAuth access token) for the user’s social media account, thereby binding the user’s in-application identity to their social media identity. This secure authentication ensures that only authorized social media actions 106 (originating from the linked account) can affect the application. The social media monitoring module 110 operates as an asynchronous background process that continuously or periodically monitors one or more social media platforms for new engagements made by the user’s linked account. The social media monitoring module 110 uses the social platform’s API, via the stored token, to fetch relevant engagement data, such as the user’s posts, shares, quote-posts or replies that pertain to the application. By running in the background (e.g., on a server thread or separate service), the social media monitoring module 110 can retrieve updates from the background processing module 118 without interrupting the realtime performance of the application’s main operations or user interface thread, controlled by the real-time monitoring system 114 and the user interface module 102, respectively.

[0097] All incoming social media engagements, whether detected automatically by the social media monitoring module 110 or submitted manually by the user, are passed to a verification engine 108. The verification engine 108 evaluates each social media engagement against predefined eligibility criteria required by the application. These criteria can include: (i) confirming the engagement originates from an authenticated and linked social media account, such as to exclude any unauthenticated or spoofed actions, (ii) checking that the content of the post includes any required keyword, hashtag, mention, or other identifier associated with an application event or promotion, (iii) ensuring the engagement has not been previously processed (duplicate checking), and (iv) confirming the timestamp of the engagement falls within an active time window or event period designated for eligibility. By enforcing these rules, the verification engine 108 validates the authenticity and relevance of each social media action before it can trigger any in-application effect, or even any effects on the social media platform 200. This additional verification step solves a problem not addressed in simpler prior systems where posts by a userDocket No. P14996WOOO were automatically accepted for a reward without independent verification, because the present system actively checks external content for compliance with application rules to prevent abuse like false claims or duplicate submissions.

[0098] Once an engagement is verified as eligible, the integration module 112, which can be included within an application engine or in communication therewith, translates the verified social media engagement into one or more corresponding in-application actions. The integration module 112 contains logic to map specific types of social engagements to application outcomes. For instance, a valid post or share might grant the user virtual in-application currency, unlock a special item, give an entry into an in-application raffle, or trigger a particular in-application event or status change. The integration module 112 interfaces with the core application engine (e.g., a game engine) to update the user’s state (e.g., incrementing a reward counter, adding an item to inventory, or changing the computerized environment based on a collective social goal). Notably, the inapplication action is triggered without requiring any invitation or participation by other users. The system does not depend on a friend or third party to confirm or respond to the post. This can be a significant improvement over conventional social games and applications where, for example, a reward might only be given if a friend accepts an invitation or helps. Here, each user’s social action can independently produce an effect, eliminating external dependencies and thereby providing a more direct and immediate feedback loop.

[0099] The real-time feedback module 114 is configured to provide immediate feedback to the player within the application in response to the in-application action triggered by the social media engagement. The real-time feedback module 114 may, for example, generate an in-app notification or pop-up message informing the user that their social post was verified and a reward was granted (e.g., “Your post was verified - 50 coins have been added to your account”). The real-time feedback module 114 can also update visible statistics on the user’s dashboard or headsup display (HUD) in real time. In one such example, the user’s coin balance or reward count is incremented instantaneously. Additionally, the real-time feedback module 114 can send an external message or email confirmation if configured, though the primary feedback is provided in-app for immediacy. This real-time notification system closes the loop by acknowledging the user’s external engagement and reinforcing the connection between the social action and the inapplication result. Prior systems lacked such real-time, verified feedback. For example, in older social integrations, a user might perform a social action and only see the effect much later or not at all if it relied on indirect triggers. In the present system 100, by contrast, the real-time feedback module 114 ensures the user is promptly informed, enhancing user experience and engagement.Docket No. P14996WOOO

[0100] All persistent data is stored and managed by a database management system 116. The database stores user profile record, including but not limited to: the mapping between the user’s application account and their linked social media account identifier and authentication token; logs of social media engagements that have been detected and whether they were processed or rewarded; the state of in-application rewards; virtual currency balances, earned items, etc.; and any relevant state needed for the integration. The database management 116 ensures data integrity and maintains a record to prevent duplicate processing. For example, once a particular social post ID has been rewarded, that ID is recorded so that the verification engine 108 will ignore it if seen again. A relational database (such as PostgreSQL) can be used, and conventional optimizations like indexing and transactions ensure the consistency of these records. The database system 116 also enables auditability of the process by recording which social action led to which reward, providing transparency and the ability to rollback or adjust in case of errors.

[0101] To handle high volumes of user actions and continuous monitoring without impacting the user’s real-time experience, the system employs a background processing module 118. The background processing module 118 encapsulates asynchronous tasks and runs processes in the background server environment. The background processing module 118 includes tasks such as periodically polling the social media APIs for new engagements (on behalf of the social media monitoring module 110), queueing and processing verification tasks, and updating the state or database in batch when appropriate. By offloading these duties to background workers or threads, the system ensures that the main application (e.g., the application loop or UI thread) remains responsive. The background processing module 118 may implement scheduling and rate-limiting. For example, waking every few minutes to fetch new posts, or using a message queue to distribute workload across multiple processors. This design allows the platform to scale to many users and high data throughput, overcoming a limitation of earlier approaches which effectively ran on a single thread reading a public chat feed. In contrast, the present system 100 has a background architecture designed for concurrent processing of numerous individual user events in parallel, making it suitable for a large-scale deployment where potentially thousands of players might be engaging on social media simultaneously.

[0102] Finally, a security and compliance module 120 is provided to enforce data protection, privacy, and platform compliance throughout the system. The security and compliance module 120 ensures that all communications and data storage are secure. For example, using HTTPS (TLS / SSL) encryption for data in transit between the application and social media APIs or between client and server, and encrypting sensitive data at rest in the database, such as OAuth tokens or personal identifiers. The security and compliance module 120 manages user consentsDocket No. P14996WOOO and preferences, ensuring the system operates in accordance with data protection regulations such as GDPR and CCPA. The security and compliance module 120 also ensures compliance with the social media platform’s terms of service and policies. For example, the security and compliance module 120 respecting rate limits and data usage policies of the platform’s API, and only accessing data that the user has authorized. In one implementation, the authentication module 104 in cooperation with the security and compliance module 120 stores the OAuth access tokens in an encrypted form in the database 116 and never stores the user’s actual social media credentials, thereby protecting user security.

[0103] The system 100 also restricts its monitoring to publicly available content or content for which the user has granted permission, to avoid privacy violations. Additionally, the compliance aspect covers handling exceptional cases: if a user deletes a social media post after it was logged, or if a user’s account becomes private or deauthorized, the design of the security and compliance module 120 can detect and gracefully handle these conditions (e.g. , by not counting or by revoking associated rewards if necessary, depending on policy). The inclusion of this dedicated security / compliance functionality is a technical improvement over prior art integrations, which often did not address data privacy concerns or platform rule changes. For example, a simple application that reads public social data might break or violate terms if the platform’ s API changes; here, the security and compliance module 120 and the overall modular architecture allow the system to adapt to changes in platform API or policies. The modular API interface design means that if a social platform modifies its endpoints or rules, the social media monitoring module 110 or the authentication module 104 can be updated or replaced without affecting the other components of the system, thereby providing longevity and maintainability.

[0104] Figure 5 highlights how the system differs from conventional application and application architectures. Traditional applications do not incorporate external social media inputs at all, and they lack the synergistic combination of a social media monitoring module 110 and an external authentication module 104 because their logic operates entirely within a single computerized environment, such as a game environment. Even applications that did interact with social networks were tightly coupled to a single platform and offered limited integration, mostly simple posting of achievements, without the separate verification engine 108 and real-time feedback system 114 and loop as provided here.

[0105] The present system 100 is purpose-built to bridge an external social media platform with a separate application / gaming environment in a secure and flexible manner, especially through use of one or more of the distinct modules / engines / systems 102, 104, 108, 110, 112, 114, 116, 118, 120 described above. Each module’s separation of concerns (authentication, monitoring,Docket No. P14996WOOO verification, integration, feedback, etc.) provides technical advantages. They enable asynchronous operation and scalability, ease updates, such as adapting to new social platforms or API changes, and ensure robust security and data management.

[0106] While Figure 5 illustrates a high-level system flowchart of the overall process by which a user’s social media engagement is handled and integrated into the application, Figure 6 can be viewed as a detailed flowchart highlighting the parallel manual submission path 204 and automated background monitoring path 206. Together, Figures 5-6 show the end-to-end operational flow from a social media action occurring to the final in-app outcome and feedback. The process begins at step 202 in Figure 6, where a user performs a social media action 202 such as posting on a social media platform 200, such as the platform X. In a gaming context, this could be a post or reply that the game has encouraged. For example, the user might quote-post an official game post or reply to a specific post with a certain hashtag or emoji. This external action 202 occurs outside the application’s immediate environment.

[0107] Separately, the system’s social media monitoring module 110 is continually active. In the background monitoring path 206, the social media monitoring module 110 polls or listens for new user posts relevant to the application. For instance, it might call the Social API every few minutes to fetch any new posts that mention the application account or hashtag. In the decision block labeled “New post?”, the system checks whether there is a qualifying post. If a new candidate post by the user is found ( / .< ., one that was not seen before, corresponding to decision “Yes”), the process moves to step “verify criteria” where that post is marked as eligible in the database. Marking it eligible means the system logs this social media post ID and notes that it meets basic criteria (for example, it is a quote of the correct content or a reply in the correct context). This prepares the data so that it can be used for awarding when the user comes online or submits it. If no new valid posts are found at that time (decision = “No”), the background loop simply continues waiting and will check again on the next cycle. The background flow depicted by the process 206 thus ensures that qualifying social media engagements are captured even if the user doesn’t manually report them immediately. The “Log Quote Posts” step and “Mark as Eligible” diamonds in Figure 1 correspond to the system recording new quote-post engagements; any that do not meet criteria or are duplicates are skipped or discarded.

[0108] Now turning to the user-initiated, manual submission path 204 in Figure 6, which corresponds to the right branch of the middle process in Figure 1, the user attempts to submit a post URL or identifier in the application’ s UI. For example, after the user makes a post, they could return to the application interface and paste the link of that post into a submission form, provided by user interface module 102. The process whether the social media account is connected, z.e.,Docket No. P14996WOOO whether the user has already authenticated their social media account with the application. If the user’s account is not yet linked, the flow proceeds to an authentication sub-flow. In Figure 1 this was indicated by “Prompt to Connect Social” and an OAuth flow branch. The application will prompt the user to log in to their social media account and authorize access, as detailed in the authentication process (described further with Figure 2 and Figure 7 below). Once the user successfully connects their account ( / .< ., obtains a token and stores their social media username in the database 116), the system 100 returns to the submission process. (The outcome of the OAuth flow is that the user’s social handle is linked and post submissions are enabled, as indicated the “Store Social Username” step in Figure 1 and “Enable Socail Submission” for that user’ s profile.

[0109] After ensuring the user is authenticated, the system proceeds to verify the submitted post at step. The verification engine 108 checks the social media post in question by calling the social platform’s API to retrieve the post details, which is illustrated in more detail in the Figure 3 and Figure 8 sequences. The verification step encompasses confirming the post’s eligibility as per the criteria described earlier (author match, required content, time window, not already used). In Figure 1, this is summarized by decision block labeled “Is Post Valid?” If the answer is No (the post fails any check), the flow goes to the step “Reject Claim”. In practice, rejecting the claim means the system may send an immediate feedback to the user that the submission was not accepted. For example, the UI could display an X and “This post did not meet the requirements” or an error code. The process would then end for that submission without granting a reward. The reason could be that the post lacked the required hashtag, was too old, or perhaps was already processed via the background job. Optionally, the system could log this as a failed attempt for record-keeping.

[0110] If the post is valid, the process continues to the reward integration. In Figure 1, upon a “Yes”, the system executes the step: “Update Database” and triggers the reward actions. For example, the “increment nugget claim” and “award raffle ticket” steps are shown as example outcomes in the flowchart. These correspond to the integration module 112 updating the state. Specifically, the reward could represent adding a unit of virtual currency, which in the figure was labeled as a “nugget” in the context of a game example, but it is to be appreciated that it is not being limited thereto. The user’s currency could be tracked in the user’s balance. The user could also be awarded a raffle entry for some contest in the game. These examples are just illustrative. Generally, the triggered in-application action could be any benefit configured by the game designers, as also reflected in claim terms such as virtual currency, items, entries, etc. Alongside updating the game state, the system 100 records in the database that this particular social media post has been processed and the user has received the reward. This prevents duplicate processingDocket No. P14996WOOO if, say, the background process separately found the same post. The “Update Database” step in Figure 1 thus includes writing an entry that the post ID is used / claimed and updating the user’s profile with the new reward values.

[0111] Immediately after or concurrent with the application / game update, the real-time feedback is delivered to the user, which corresponds to generating a notification or response. In the flowchart of Figure 6, after awarding the rewards, a confirmation is sent to the user. This could be represented as an in-app pop-up or a success message displayed in the UI (a checkmark next to “Post verified! You earned 50 gold coins and 1 raffle ticket.”). This closes the loop with the user. In Figure 6, this would be an end step where both the manual and background paths converge, resulting in an update to the state and notifying the user.

[0112] Some example aspects of the manual submission path 204 are described thus. First, the user post on social media: the user creates a relevant social media post (e.g., a post or reply containing a hashtag or mention). This action is external to the application but intended to count toward a reward or event. Second, submit post URL in-app: inside the application user interface, the user enters the URL or ID of their social media post to claim credit. If the user’s social account is not yet linked, the system will prompt for authentication at this stage (branch to the OAuth flow, see Figure 3). Once authenticated, or if already linked, the submitted post info is forwarded to the backend for processing. Third, verify eligibility: the verification engine 108 checks the social post against all criteria. It confirms the post was made by an authorized player (matching the linked account), contains any required keyword / hashtag, hasn’t been processed before, and lies within the valid event timeframe. If any check fails, the post is marked ineligible and the process ends with an in-app notification of failure or a rejection message to the user (no reward). Fourth, record and trigger application action: if the post is verified as eligible, the system records the successful event in the database and triggers the corresponding in-app reward or action. For example, the flowchart would show steps like “Increment player’s virtual currency” or “Award in-app item” as outcomes of a “Yes” decision on eligibility. The database is updated to mark this social post as used (preventing duplicates) and to log the reward given. Fifth, real-time feedback to player: immediately after processing, the player receives feedback about the successful action. The flowchart denotes an in-app popup or confirmation (e.g., “Your post was verified - 50 coins added!”). This instant feedback loop closes the manual path, reinforcing to the player that their social media engagement directly resulted in an application benefit.

[0113] Some example aspects of the background monitoring path 206 are described thus. First, continuous social media scan: independently of user submission, the social media monitoring module 110 runs on the backend to continuously or periodically poll the social platform’s API forDocket No. P14996WOOO new engagements related to the application. The flowchart shows a loop where the system fetches recent posts (e.g., every few minutes) that mention the application hashtag or other triggers. The system respects API rate limits during this process to avoid overload, using techniques such as rate-limit queues. Second, detect new qualifying post: the background process filters the fetched data for any new posts by linked users that have not yet been processed. When a new candidate post is found (decision “New valid post?”), the flow branches to verification. If no new valid posts are found, the loop continues waiting / polling. Third, automatic verification: the verification engine 108 validates the post just as in the manual path, checking user authenticity, content keywords, time window, etc. This ensures the automated background monitoring path 206 applies the same strict criteria before any application action is taken. Fourth, update application state: if the post meets criteria (“Yes” branch), the system proceeds to trigger the appropriate in-app reward / event and logs the action in the database - analogous to the manual path’s reward step. Depending on implementation, the reward might be granted immediately even if the player is offline, or flagged for the player to collect when they next log in. In the flowchart, this might be represented as “Mark reward eligible for user” followed by “Update user’s reward inventory in DB”. If the player is currently online, a real-time notification could also be sent. If the post is not eligible (“No” branch), it is ignored or flagged as invalid with no application effect. Fifth, player notification: for a post processed in the background, the system can still provide feedback to the player. The flowchart may include a step like “Send notification / email to user” or next time the player opens the application, they see a message or updated dashboard indicating the reward earned. This ensures that even if the integration happened automatically, the user is made aware of their successful social-media-driven reward.

[0114] It should be noted that the background monitoring path 206 and the manual submission path 204 are complementary and provide a synergistic benefit. In many cases, the user will actively submit their post shortly after making it: the manual path 204, which allows immediate verification and reward. However, if the user forgets to submit or is offline, the background path 206 ensures that their action can still be captured. For example, the social media monitoring module 110 might detect a new qualifying post (“Yes”) and mark it eligible in the database 116. Then, when the user later opens the application, the system can automatically verify and reward that post even if the user did not manually input it, or the user might see it already flagged as eligible and simply confirm to claim it. In one implementation, the reward might even be granted in the background: the system 100 could decide to immediately apply the reward when it finds the post, and then queue a notification for the user (so next time they log in, they see “While you were away, your post earned 50 coins!”). This scenario is elaborated in Figure 9, described infra.Docket No. P14996WOOO

[0115] One such benefit from the background monitoring path 206 and the manual submission path 204 is that no qualifying social media engagement is missed, as the design uses both push (user-driven) and pull (system-driven) mechanisms to integrate external engagements. Traditional applications might only do one or neither. For instance, an application can require manual input of a code from a social post, or another might periodically give bonuses but not tied to specific user posts. Here, by having both, the system offers robustness and convenience.

[0116] Thus, the flowcharts of Figure 1 and Figure 6 each demonstrate the full lifecycle: external action -> detection -> authentication -> verification -> in-app update -> user feedback, covering both asynchronous background checks and real-time user submissions. This solves technical problems like latency and reliability of event capture. Even if the API calls fail or are delayed, the background loop can retry, and even if the user doesn’t trigger it, the system can still catch their engagement. Importantly, because each step is verified and tied to an authenticated identity, the system avoids the pitfalls of systems where crowd-sourced free-form text commands are read from a public chat without authentication. Here, the in-application action is initiated based on unanalyzed, unauthenticated text commands from random users. Instead, every input is attributed to a known user and vetted. This distinction ensures that the application cannot be spammed or manipulated by outsiders. Only the linked user’s own engagements count, and only if they meet the criteria.

[0117] With respect to Figure 7, and the corresponding Figure 2, in order for the system to access a user’s social media engagements, a secure authentication link must first be established. Figure 2 illustrated an OAuth authentication flow for linking the user’s social media account (e.g., X / T witter account) with the application, and Figure 7 provides a sequence diagram detailing this process. The authentication sequence begins when a user initiates account linking via the application user interface. As shown in Figure 2, the user, through the frontend of the application, clicks a “Connect to Social” button. The application client then sends a request to the backend server to start the OAuth handshake (e.g., “GET / oauth / social”).

[0118] The application server contacts the social media platform’s OAuth service, illustrated as part of Twitter OAuth servers in Figure 7, to request a temporary authorization URL or token. In Figure 7, this is labeled as “Request OAuth Token”. The social media platform 200 responds by providing an OAuth authorization URL or request token. The application server then redirects the user’s device to that URL or opens a web view. Effectively, the user is now presented with the social platform’s login / authorization screen (the step “User Authorizes htpps: / / . . .”). The user can log in if not already logged in, and the user is asked to authorize the application’s requested permissions. For example, permission to “read your posts and profile”. Once the user clicksDocket No. P14996WOOO“authorize” on that social media page, the social platform will redirect the user’s browser back to the application predefined callback URL with a verification code or token (e.g., the “Callback to app with code” step).

[0119] Upon receiving this callback at the backend, the application server proceeds to exchange the temporary code for a permanent access token. This occurs by a secure server-to-server request (the “exchange code for access token” step). The social media platform verifies the code and returns an Oath access token. This token is essentially a long-lived credential that the application will use to make API calls on behalf of the user in the future, without needing the user’s password again.

[0120] The system finalizes the linking: the application server stores the user’s social media identifier (e.g, the user ID) and the obtained token in the database 116. In Figure 2 this is denoted as “Store Username” (and token). The authentication module 104 marks the user profile as now linked to that social account. Following this, the server notifies the client that the linking was successful. The user’s UI can update to show a “Connected” status (for example, displaying the user’s username in the application account settings, or simply indicating the link is active). The user is now free to utilize all social-integrated features (e.g, submitting posts for rewards as described earlier). In Figure 7, this corresponds to the final “link confirmation and data storage” and “feedback to UI” steps, where the sequence diagram shows writing to the database and updating the UI.

[0121] Throughout the OAuth sequence in Figure 7, all communications are conducted over secure channels (TLS). The authentication module 104 ensures that sensitive tokens are handled securely: it never exposes the token to the client or any unauthorized part of the system and will typically store it encrypted in database 116, flagged under the security module 120 policies. This secure OAuth linking is a key underpinning of the invention’s ability to trust and verify user actions.

[0122] Some example aspects of the sequence for the OAuth authentication sequence are described thus. First, initiate link from user interface: the user starts the linking process by clicking a “Connect to X” button or similar in the application UI. The application client then sends a request to the application server indicating the user wants to authenticate with the external social platform. Second, request OAuth token: the application platform (server) contacts the social media service via its API to begin OAuth. It requests a temporary request token or authorization URL from the social media platform. In response, the social platform returns a URL or token that will be used to authenticate the user. Third, user authorization on social platform: the application directs the user’s device to the social media platform’s authorization page, for example, opening a browserDocket No. P14996WOOO window to X’s OAuth login prompt. The user logs into the social platform if not already logged in and sees a prompt describing the permissions the application is requesting, such as read access to their posts. The user then authorizes the connection, granting the application permission. If the user cancels or denies, the sequence terminates with no link established. Fourth, OAuth callback to application: after approval, the social media service redirects the user’s browser back to the application predefined callback URL with an authorization code (or token verifier). The application client or server receives this callback, which indicates the user successfully authenticated on the social platform. Fifth, token exchange: the application server now exchanges the received authorization code for an access token by making a secure API call to the social platform. The social platform verifies the code and returns an OAuth access token that represents the granted permissions. This token allows the application to access the user’s allowed social media data (within scope) without needing the user’s password. Sixth, link confirmation and data storage: with the access token obtained, the application platform links the user’s profile to their social media account. The server stores the user’s social media identifier (e.g., their X handle / user ID) and the token in the database. Figure 7 shows this step as writing to the database 116 (e.g., “store user’s X account ID and auth token”). This persistent link is what enables monitoring of that user’s social posts going forward. Seventh, feedback to UI: the application client is informed that linking was successful. The UI can update to show the account as connected (e.g., displaying the user’s username or a “Linked” status). The sequence diagram ends with the user now authenticated. The user can immediately proceed to use social-media-linked features (such as submitting posts for rewards), as the trust relationship between the application and social platform is established.

[0123] In summary, Figure 2 and Figure 7 show the secure association process between a user’s social media account and the computerized environment profile. This process need only be done once per user, or whenever the link expires or is revoked. After this, the system possesses an access token that it can use in the background to query the user’s social media engagements, via the social media monitoring module 110, and to verify specific posts, via the verification engine 108, all without further involvement of the user’s credentials. This design ensures enablement: a developer implementing this system is guided to use industry-standard OAuth protocols to handle authentication, rather than trying insecure shortcuts. The result is a robust link that forms the foundation for the cross-platform integration.

[0124] The user submission and verification sequences of Figure 3 and Figure 8 evidence that once a user’s account is linked, they can submit a social media post to claim a reward. Figure 3 provides a high-level process diagram of the post submission and verification, and Figure 8 givesDocket No. P14996WOOO a sequence diagram showing the interaction between the user, the application server, including the verification engine 108 and application logic, and the social media platform’s API during this process. In the example of Figure 3, the flow starts with the user submitting the Post URL via the user interface). The client sends this submission to the backend (e.g., an HTTP POST request to an endpoint like “POST / submit-eligible-post” as indicated in Figure 3). The submission includes an identifier of the social media post, for instance, the URL or a unique ID of the post.

[0125] The application backend server receives the submission and triggers the verification engine 108 to process it. The first action is to fetch the post details from the external platform: the server uses the stored OAuth token for that user to call the social API to retrieve data about the post ID provided. This is indicated as “Fetch Social Details” in Figure 3 and shown in Figure 8 as a call from the application server to the Social API (“GET social by ID”). The social media platform returns the social data, which includes information like the author’s user ID, the content of the post, timestamp, etc.

[0126] Next, the verification engine 108 checks the post’s eligibility criteria. This step corresponds to multiple checks. For example, verifying the post’s author matches the linked account of the submitting user, thereby ensuring the user isn’t trying to claim someone else’s post; scanning the post text for the required hashtag or keyword, e.g., does it contain “#Event” or a specific emoji that the event demands?; confirming the post’s timestamp is within the allowed event period; and confirming that this post’s ID hasn’t already been processed in the database. In Figure 3 this is summarized as “Check Social Eligibility”. The result of this check is an eligibility status. If the post is found eligible, the flow will proceed to reward. If ineligible, the post will handle it as an error. Figure 3 indicates a branch. The post is eligible verse the post is ineligible, leading to different outcomes.

[0127] For the eligible case, Figure 3 shows logging the post and updating the user’s rewards. In Figure 3, this is depicted as “Log Post” and “Update User Nuggets”. “Log Post” means writing an entry to the database 116 marking that this post (with ID X) was verified and used for a reward, to avoid duplicates. “Update User Nuggets” is an example reward action. Here, presumably increasing the user’s virtual currency (“nuggets”) count in the application. The integration module 112 can perform that update in the application’s state. After updating, the server sends a “success response” back to the client, confirming that the submission was processed. Simultaneously or immediately after, the real time feedback module 114 generates a reward notification to the user in the application. Figure 8 shows this sequence in detail: after verification, the application engine triggers a reward grant (e.g., calls a function to add coins to the user’s account) and then sends a message to the client (e.g., through a websocket or the response of the submission call) indicatingDocket No. P14996WOOO success and details. The client then displays a notification such as “Post verified! You earned 100 coins.” An example implementation of what is discussed in Figure 8 is illustrated in the user interface of Figure 12, discussed infra.

[0128] For the ineligible case: If at the post fails verification, an error response is sent to the user (see Figure 3: post is ineligible). The server’s response might contain a message or code explaining the failure (e.g., “criteria not met” or “post not found”). The UI can then display the error message to the user, which in one example could read: “This post did not include the required hashtag, please try again,” thereby giving immediate feedback on the failed verification. The system does not log the post as rewarded in this case, though it might log that it was seen and rejected for auditing.

[0129] The sequence of Figure 8 expands on a few more technical nuances: After the user submits the post URL and the backend fetches the post, the verification engine performs those checks internally, as method calls or subroutines. If everything checks out, the verification engine 108 communicates with the application’s reward system to apply the reward. There might also be an intermediate step of checking the database for duplicates before granting reward. Figure 8 also indicates that the feedback to the user is done “substantially in real-time”, the verification and reward all occur immediately upon the user’ s submission, without waiting for any scheduled batch job. This is an important aspect: the user’s action is reflected in their application progress essentially immediately. This immediate reflection is not present in other systems, where either the user has to wait for some scheduled update or rely on another user’s input. Here, the reward, the in-app effects, and the social media posts essentially synchronous from the user perspective, though asynchronously handled on the server side to maintain performance.

[0130] In summary, Figure 3 and Figure 8 demonstrate how the user-initiated submission is processed from start to finish. The combination of secure API retrieval, stringent verification, database logging, and instant feedback ensures the system is both robust and user-friendly. It provides the benefit of integrating external user-generated content into a controlled application environment by introducing a verification gate, thereby solving potential cheating issues. Additionally, the system includes duplicate detection. As noted, if the same user tries to submit the same post twice, the second time the verification engine 108 will see that the post ID was already logged, and will mark it ineligible, perhaps returning an error like “Already claimed”. This functionality, recited for example in claim 15 and illustrated conceptually in the verification step, prevents abuse where a user could otherwise continuously submit the same social action for unlimited rewards. The database record (log) serves as the memory of processed engagements.Docket No. P14996WOOO

[0131] The system also provides the benefit of automating the reward granting, thereby eliminating a need for manual admin checks or delays. It also solves the issue that, in many social media promotions outside of applications, a user might post something and then an organizer manually or later verifies and gives a prize, which is too slow, manual, and can be easily rigged. Further, the system is formalized and generalized to work across all platforms, with actual verification and no reliance on manual friend interactions or honor system.

[0132] While the user-driven submission is one trigger, the system also features an automated background monitoring process for social engagements, as mentioned earlier. Figure 9 is a sequence diagram that elaborates how the backend continuously monitors the social media platform and processes engagements without direct user input. This corresponds to the background monitoring path 206. The sequence in Figure 9 begins with a periodic API inquiry. On a scheduled interval (or via a streaming subscription), the social media monitoring module 110 contacts the social platform’s API to ask for any new posts or engagements related to the application since the last check. This could be implemented by an endpoint like “GET / mentions? since=time” or “GET / posts?query=#AppTag” depending on the platform’s capabilities. Beneficially, the social media monitoring module 110 retrieves a batch of recent activities. The system may use known techniques to stay within rate limits, such as only polling every N minutes or using a third-party library (e.g., a rate limiter or backoff strategy). Figure 9 also shows that the system respects these limits, indicating that the process is mindful not to overload the API. This can be an important compliance detail for real-world implementation.

[0133] Next, the system filters the fetched data to identify actions by linked users of the application. The social media monitoring module 110 receives potentially many posts. Some might be by unlinked users or irrelevant content. The authentication module 104 cross-references each post’s author ID with the list of known authenticated user IDs stored in database 116. Any posts not from a linked account are ignored or set aside. Optionally, the application could later reward a user who made a post once they do link their account, but in most embodiments typically only linked users’ actions are considered. This filtering step results in a subset of “candidate posts” that could be eligible.

[0134] Then, for each candidate post, the system performs a new post eligibility check. Essentially, the system checks if this post has already been processed or seen. The database 116 is queried for the post’s unique ID. If the post was encountered before, for example if the user manually submitted it already or a previous poll caught it, then the post is a duplicate and should be ignored. If the post is truly new, the sequence proceeds to the automatic verification step. Here, the verification engine 108 applies the same set of rules as in the manual case. The verificationDocket No. P14996WOOO engine 108 checks the content for keywords; verifies the author is indeed the linked user, which should be true by construction of the filter; and checks the timing, perhaps the background job itself ensures only recent posts are fetched, but the verification engine 108 can double-check event windows, etc. This is all done server-side without user involvement, likely in a background thread or worker process. If the post fails any criteria (verification outcome = no), the system can mark it as invalid or simply drop it. The step could flag the post, e.g. “Flag as invalid” or just skip. The sequence would then move on to the next post or loop back to waiting.

[0135] If the post passes verification, the system then triggers the corresponding reward just like in the manual scenario. The system then records and rewards by invoking the integration module 112 to apply the reward to the user’s profile automatically. For example, if the rule is “post with #AppEvent gives 50 coins,” the system will increment that user’s coin balance by 50 in the database and perhaps generate a new item or entry if applicable. It records this action in the database, logging the post ID as processed and noting the reward given. At this point, the user has effectively earned the reward even though they did not actively claim the reward in the application. If the user is currently online in the application, the system can push a real-time notification immediately (e.g., using a server-push or WebSocket to the client to display a message). If the user is offline, the system will defer the notification.

[0136] Figure 9 illustrates that the user notification can be deferred. This means the system prepares a notification for the user about this event. The next time the user opens the application, the client might fetch any pending notifications and see a notification such as “Your recent Social engagement earned you a reward!” Or the system might send an email or mobile push notification if such channels are set up. Alternatively, if the user comes online shortly after, the server can immediately deliver the message. In any case, the user will receive feedback so that they are aware their external action was recognized and rewarded, maintaining the sense of a responsive system.

[0137] Finally, the sequence loops back (as indicated by the arrow in Figure 9). The background monitoring runs continuously or periodically as long as the system is operational, ensuring up-to- date integration. In an example implementation, this could be a persistent worker that sleeps for a configured interval or subscribes to a real-time API feed if the social platform provides one, as some platforms allow a streaming API that pushes new posts as they happen, which synergistically complements the real-time aspects of the system as a whole.

[0138] The background sequence in Figure 9 demonstrates the proactive capture of user engagements without user intervention, which is not found in conventional systems. For instance, if a user posts about the application outside of their use, they do not have to remember to claim it. The system can catch it and still reward them later. This contrasts with earlier designs where ifDocket No. P14996WOOO the user did not manually input something, it would not count. The system architecture 100 also contrasts applications, where if there was not present in the live chat at the exact moment, the input could not influence the application. Here, the post can be made at any time and the system will handle it when it checks. Additionally, because of the verification step, the system avoids acting on irrelevant or malicious content. For example, if an unrelated post somehow matched a hashtag but was from an unlinked user, it gets filtered out. The background monitor thus runs with the same rigor as the foreground process, ensuring integrity. Technical challenges like ratelimiting, ensuring the API queries do not exceed allowed calls, are addressed by the system architecture 100 because the system uses appropriate scheduling and possibly backoff algorithms. Another challenge solved is handling of edge cases. For example, if a user deletes a post after posting, but before the background job runs. In some embodiments, though the system has logged the edge case, when the system attempts to fetch the edge case, the system may not find the edge case. This may lead to a failed fetch which is handled gracefully, or if found and then deleted later, the record in DB still prevents exploitation, for example if the reward was given and if necessary could be revoked, or the deletion is simply ignored since the application event already happened.

[0139] The Figure 9 process ensures the application environment remains in sync with user’s social media behavior in near-real-time, even in the absence of user prompts. Figure 8 and Figure 9 together synergistically cover synchronous (user-driven) and asynchronous (system-driven) flows, which can occur in parallel.

[0140] The present disclosure also encompasses specific user interface components that facilitate these processes and enhance the user experience. Figure 10 shows an example social account linking interface in the application user interface, Figure 11 shows a social post submission interface, and Figure 12 shows a real-time reward feedback display in the application. These figures are drawn in a schematic, platform-agnostic manner to illustrate functional elements rather than final artistic design.

[0141] In Figure 10, the application presents a screen or dialog for connecting a social media account. A prominent “Connect to Social Media” button is visible (e.g., labeled “Connect to X” if the platform is X / T witter). This button is the user interface element that the user clicks to initiate the OAuth authentication flow described earlier. When pressed, the client will begin the OAuth sequence (Figure 7) by redirecting to the social media authorization page. The figure also shows a status indicator which initially might display “Not Connected” or an icon (such as a greyed-out Twitter logo) indicating no account is linked. There may be instructional text on this interface, e.g., “Link your Social account to earn in-app rewards from your posts!” explaining the benefit of linking and possibly assuring the user that the application will not post on their behalf, to addressDocket No. P14996WOOO user trust and compliance. After a successful link, this same interface would update: for example, the status might change to “Connected as @UserName” and the connect button might be replaced or disabled, or turn into a “Disconnect” option. Figure 10 focuses on the initial state (preconnection).

[0142] The user interface can be a beneficial entry point for the entire system, as without it, the rest of the integration would be difficult. By providing a clear and easy way for users to authenticate via the authentication module 104, the system 100 improves over prior applications which often lacked any external account linking UI. The neutral design shown in Figure 10 indicates that the particular styling is not critical. Rather, the style can be adapted to the look and feel of any application, but the functional would likely be present in some form to guide the user through authentication.

[0143] As illustrated in Figure 11, once an account is linked, the user can access an interface to submit their social media post for verification. This could be a section of the application user interface that is unlocked or visible only after linking, thereby ensuring that any submission will indeed come from an authenticated account. An input field is shown where the user can enter or paste the URL of their social media post. The input field can be labeled with instructions like “Enter the link to your post here”. For example, the placeholder text might show a URL next to it. Next to that, a submit button (labeled “Submit” or “Verify Post”) is provided. When clicked, the submit button triggers the client to send the entered URL to the server, which kicks off the verification process shown in Figure 8. The interface might immediately check if the user is currently authenticated, and prompt again if needed. But assuming the link is active from the Figure 10 process, it goes straight to verification. Figure 11 also depicts guidelines or status text near the input. This can serve to inform the user of the requirements, such as “Make sure your post contains #AppEvent and is public.” This text mirrors the verification criteria in a user-friendly way, educating users on how to successfully earn rewards (and thereby reducing frustration from failed submissions). It might also show the status of a last submission. For instance, if a submission was just made, the area could update to show a success message or error message. Figure 11 indicates this by showing that after submission, a message might appear below the button, e.g., a green checkmark with “Post verified! Reward granted.” in case of success, or a red cross with “Post not found or criteria not met” for failure. The figure might only explicitly illustrate one state (success) for clarity, but the description covers both.

[0144] This submission user interface (Figure 11) solves a usability problem by providing a direct channel for the user to claim their engagement. In older systems, if there was any integration, it was opaque. A user would share something and have to hope the application noticed. Here, theDocket No. P14996WOOO user can take action and see an immediate result, giving them agency. The present system is also beneficial in that there is a feature where the user can paste an external social media link into the application. By including this feature, new forms of interaction are empowered. The system effectively turns social media activity into a part of the loop (post -> submit -> get reward), which represents an advancement in application design.

[0145] Figure 12 illustrates how the application provides feedback to the user once a social media engagement has been processed. One common form of feedback is an on-screen notification popup. In Figure 12, this is shown as a small overlay window with a message like “Social Media Reward Unlocked!” and a sub-message detailing what was earned (e.g., “Your post earned 50 Gold Coins ”). This pop-up can include an icon representing the reward, such as a coin icon next to the text. The user interface can also show it in a generic fashion, e.g. (a rectangle with example text). In addition to a pop-up, the application’s HUD or status display is updated in real time. For instance, if the user’s coin count was shown in a corner of the interface, the number would increment by 50 immediately.

[0146] The graphical user display of the user interface of Figure 12 can also indicate the old value and new value with an arrow or highlight to show that change occurred as a direct consequence of the social action. Moreover, the application can add an entry to a persistent log or message center (e.g., have many applications have an inbox or notification list). An icon, like a mailbox or bell, can also indicate that there is a new message, and the entry could read “Today 14:35 - Post verified: +50 Coins”. Figure 12 uses these elements to illustrate that the feedback is not only instantaneous but also recorded for the user’s reference.

[0147] The real-time feedback user interface directly addresses the human-factor problem of uncertainty. If a user does something external to an application, the user might not be sure if the application registered it. By immediately confirming inside the application, and even if the user is offline, by showing it next time or sending an email, the system can assure the user that their effort translated into a reward. This encourages continued engagement. The user sees a direct, prompt payoff. In prior social application mechanics, feedback was often delayed or indirect. For example, if the user posted a help request, the user might only know it succeeded if a friend responded later, or if the operator checked your gift box later. There was no on-screen instant “You earned X for posting.” Here, the invention removes that ambiguity with direct feedback. Technically, implementing this involves perhaps WebSocket connections or long-polling to the client, or simply as part of the synchronous response to a manual submission. The drawings and description indicate to a developer that they should include such UI mechanisms to achieve the invention’s intended effect.Docket No. P14996WOOO

[0148] It’s worth noting that these user interface figures (Figures 10-12) are illustrative and the actual visual design can vary widely. However, at a minimum, each Figure 10-12 demonstrates a function. Figure 10’ s example function demonstrates linking accounts, Figure Il’s example function is post submission, and Figure 12’ s example function is feedback display. These interfaces directly demonstrate some aspects of the previously described modules, such as: the user interface module 102, which encompasses these screens; the authentication module 104, which is invoked via Figure 10’s interface, the verification engine 108 and integration module 112 drive the logic behind Figure Il’s submission handling, and the real-time feedback module 114 is responsible for what Figure 12 shows. Thus, the figures complement the system architecture by showing how a user interacts with those modules in practice.

[0149] To further support scalability and reliability, Figure 13 illustrates an example distributed server architecture for implementing the system. In this diagram, multiple user devices are shown on the left (e.g., a smartphone and a personal computer or console), representing client devices on which the user runs the application or application (the user interface module 102 resides on these clients). These devices connect over a network (the Internet), depicted by a cloud icon in Figure 13, to the backend server components. The network connections are secured, thereby indicating by padlock icons or similar in the figure, using encryption protocols such as HTTPS, to protect user data and tokens during transmission, which are in line with the security module 120. On the server side, represented on the right side of Figure 13, the system may be implemented as a cluster of servers rather than a single monolithic server. For example, a web application server handles incoming client requests, such as login, submissions of URLs, and delivering notifications, while a separate social monitoring server runs the background processes that call the social media APIs and performs verification tasks. Optionally, there may also be one or more application logic / verification servers that execute the core integration logic of the integration module 112 and verification engine 108. These application logic / verification servers are logically separate for clarity, but in practice could be distributed across multiple machines or combined as needed.

[0150] Also as shown in Figure 13, the figure includes a load balancer in front of the server cluster, which distributes user traffic evenly among multiple server instances to prevent any single server from overloading when many users are online simultaneously. A centralized database server, which is depicted as a cylinder, is connected to these servers. This corresponds to the database management system 116 and stores the persistent data used by all servers. In a scalable implementation, the database 116 itself could be a managed cloud database or a cluster of database nodes. Figure 13 thus represents it as a distinct component to emphasize that data is shared and consistent across the distributed system.Docket No. P14996WOOO

[0151] Also shown in Figure 13 are the external social media platform servers. For example, the servers hosting the social media (e.g. X, Facebook, etc.) API. These are third-party servers outside the application’s own network. The application servers communicate with the social platform servers via secure API calls, indicated by arrows labeled as OAuth API calls, data fetches, etc. in Figure 13. This highlights that the integration relies on authorized requests to an external service. For example, the social media monitoring server will periodically send a request like “get recent posts for user abc” to the social media platform 200, including the user’s OAuth token for authentication, and then the platform 200 returns the data which is processed by verification server and recorded in database 116. Because the computerized environment, the application’s servers and client is hosted independently of the social media platform, as they only interface via APIs. The application does not run on or within the social network’s infrastructure. The independence means the invention can be deployed as a standalone service that interfaces with any social platform, rather than being a plugin or application that is confined to operating inside a particular social network. For example, there have been games that are essentially only an application operating within Facebook’s ecosystem, whereas the present disclosure application server is separate from the social network and simply uses Facebook / T witter APIs externally. The application continues to run even if the social network is not embedded, simply calling out to it as needed.

[0152] The Figure 13 architecture is designed to aid in solving technical scaling problems. If a large number of users perform social actions around the same time (e.g., a popular application event prompting thousands of posts, the system can handle the load by virtue of its distributed components. Multiple monitoring workers can fetch and process posts in parallel, and multiple integration / verification servers can update user states concurrently, all synchronized through the database. This ensures timely processing for each user without significant delay, maintaining the “real-time” feel. By contrast, earlier one-off systems that had a single process listening to a chat channel, which would not scale to individualized actions for many users or separate application states. Similarly, typical online games might have multiple game servers for gameplay, but they do not integrate with external APIs, so they lack the additional layers and would require substantial modification to support this kind of functionality. Figure 13 therefore provides insight to implementers on how to structure the system in a cloud-based, modular computing environment with proper load balancing, background job handling, and secure external communication to achieve the invention’s goals for potentially millions of users. Each component in Figure 13 corresponds to one or more modules from Figure 5, but deployed in a scalable network form.Docket No. P14996WOOO

[0153] While some of the description above is framed in a gaming context, the system is broadly applicable to other environments as well. Figure 14 illustrates the adaptability of the system to multiple social media platforms and multiple application types, and not just games. On the left side of Figure 14, icons represent different social platforms (for example, a bird icon for Twitter / X, an “f ’ for Facebook, a camera for Instagram, a play button for a video platform, etc.). Each of these platforms provides APIs and OAuth mechanisms that are analogous to what has been described for X (Twitter).

[0154] The system’s social media monitoring module 110 and authentication module 102 are modular such that they can be configured to work with any of these platforms. For instance, to integrate Facebook, the authentication module would use OAuth 2.0 with Facebook’s developer API, and the monitoring module would query Facebook’s graph API for posts or hashtags. The diagram shows arrows from each social platform icon converging on a central social engagement integration engine, which conceptually represents the core logic of the system. The core logic combines monitoring, verification, integration, etc., z.e., the engines / modules / sy stems 104, 108, 110, 112, etc. synergistically working together. This indicates that the engine can ingest engagements from various sources. The engagements might operate concurrently. For example, Twitter and Instragram could be checked in parallel for a user’ s actions, and the processing unified of those into the application’s events.

[0155] In some embodiments, near the engine, Figure 14 can further include a policy / API update module” or similar, such as the background processing module 118, thereby indicating that the system is designed to be flexible to changes. This represents that if any platform updates its API or rules, the engine can be adjusted. For example, switching to a new API endpoint or adjusting to a new data format, without a complete redesign. The modular architecture allows swapping out just the part that interfaces with the platform. This future proofing is significant in practice, because social media services often change their backend interfaces or impose new restrictions, and an application that cannot adapt could break. The present disclosure explicitly contemplates this by design, thereby ensuring longevity and compliance. This also establishes the ability of the platform to adapt policy changes.

[0156] On the right side of Figure 14, multiple application environments are shown. These could be different applications or even different types of software beyond applications. For example, the first icon could represent an online video game, the second icon could represent an educational learning platform, and the third icon could represent a marketing or enterprise application. The arrows from the central engine to each of these indicate that the same social integration service can feed into different “host” applications.Docket No. P14996WOOO

[0157] In a non-limiting example, the integration engine could be offered as a cloud service. For example, a company could provide “Social Engagement SDK” that any application can plug into. Each application would use the integration engine to authenticate its users’ social accounts and define the criteria / rewards relevant to that application. For a video game, the rewards might be virtual items or points as described. For an educational platform, the social media engagements might be students sharing achievements or answers on a forum, and the reward could be badges or extra credit in the application. For a marketing campaign, the application might be a promotional portal where users’ posts about a product grant them discount codes or access to exclusive content. For a corporate training simulation, employees might post about completing certain training tasks on the company’s enterprise social feed, and the system would give them recognition points or unlock new training modules in the simulation.

[0158] Figure 14, therefore, shows the broad application of the present disclosure. Any computerized environment that can benefit from verified external engagements can utilize this system. The term “computerized environment” as used in the claims is meant to cover all such applications, not just games. Figure 14 underscores that nothing in the core design is inherently game-specific. Games are just a particularly intuitive example.

[0159] The modules, like the authentication module 104, the social media monitoring module 110, the verification engine 108, etc. The modules work the same way for other contexts with minor tweaks (e.g., different criteria or reward definitions). This versatility is a strong advantage over prior art. Previously, if a marketing team wanted to incorporate social media actions (like “post #OurBrand to get a coupon”), the social media team might have to manually verify or use a simple hashtag tracker with no secure linking; often people could cheat by making multiple accounts. With the present system, users are required to authenticate their real account (ensuring one reward per user) and automate the coupon distribution in an application when the criteria post is made, all in real time. Similarly, educational applications can use it to encourage students to discuss topics on social media for rewards in a learning application, etc.

[0160] From a technical standpoint, supporting multiple platforms means handling different APIs. Optionally, the system can have an abstraction layer for API calls so that, for example, the monitoring module can plug in a “Twitter Adapter”, “Facebook Adapter”, etc. Each adapter knows how to query that platform for the desired data. The verification criteria might also be platformspecific. For example, Facebook posts might not use hashtags in the same way as Twitter, so the rule might look for keywords in text differently. The present disclosure demonstrates an architecture 100 that designs the modules with this flexibility in mind, using strategy patterns or configurations for each distinct platform 200. The OAuth authentication flows are conceptuallyDocket No. P14996WOOO similar (OAuth 2.0 being most common for most services now). Thus, the authentication module 104 can be extended to new services with appropriate endpoints and scopes. Figure 14 includes a depiction of multiple inputs and outputs, thereby emphasizing that the present disclosure is not limited to one social network or one game.

[0161] Finally, Figure 14 and the associated description tie back to the objectives of solving earlier limitations: Traditional systems, if they had any social integration, were usually one-off (hard-coded to a single platform, e.g., a Facebook-only game, or a Twitter hashtag campaign without a dedicated application integration). The present disclosure thus provides a generalized solution that can be applied across domains and can evolve with the social media landscape. It creates a technical framework that can adapt to future changes. For example, if a new social platform emerges, a new adapter can be written and added to the engine. It ensures compliance across different jurisdictions and industries. The security and compliance 120 module would, for instance, allow an enterprise to ensure no private employee data is misused, or an educational application to safeguard student information.

[0162] In conclusion, the described system integrates social media engagements into a separate application in a way that is technically novel and non-obvious over prior approaches. Key advantages and problem solutions include: a (1) real-time, verified feedback loop. Unlike conventional applications where social sharing is unverified or delays rewards, here each social action is authenticated via OAuth and verified in seconds, triggering immediate in-app feedback. This solves the problem of lack of trust and immediacy. Users know right away that their engagement counted, improving satisfaction and engagement rates. Asynchronous background processing: the system’s ability to monitor social platforms in the background, for example through the social media monitoring module 110 with background workers in the background processing module 118, means that even if a user’s engagement happens outside the application or while they are offline, it will be captured and processed. This addresses the reliability issue. No qualifying action is lost. It does so without impacting application performance, as the heavy lifting is done off the main thread.

[0163] By using secure authentication with the authentication module 102 and maintaining records of processed engagements with the verification engine 108 and database 116, the system prevents fraudulent inputs and duplicate claims. Earlier applications had problems like users exploiting referral systems or impersonating others. The present invention closes those loopholes by design.

[0164] The design is modular and scalable. The separation into modules and the distributed architecture (Figure 13) provide a clear blueprint for scaling to many users and multiple platforms.Docket No. P14996WOOOThe modular approach solves the maintenance problem. If one service needs an update (e.g., Twitter API vl. l to v2 migration), it can be done in isolation. The use of tokens and API abstraction means the system can survive changes in social network infrastructure.

[0165] There is no third-party dependency for reward activation. The user’s reward does not depend on other users’ actions. This is a direct improvement over applications that require friend approvals or multi-user coordination, which often frustrated users. The present system ensures one user’s action alone, if valid, is sufficient to get a response - making the experience more usercentric and reliable.

[0166] The same core technology can be applied beyond applications, to educational platforms where social sharing of learning milestones could be rewarded with points or certificates in-app, marketing campaigns where user posts can unlock discounts or contest entries in real-time, or corporate training where employees’ engagement on enterprise social feeds can translate to gamified training rewards. This broad applicability was not feasible with older systems that were hardcoded to specific use-cases. The invention provides the generalized means to do so, which represents an improvement in computer-enabled interactions across different industries.

[0167] By addressing these points, the description follows the EPO problem-solution approach. The technical problem of how to seamlessly and securely integrate off-platform user engagements into an application with immediate effect and without the shortcomings of prior art is solved by the specific combination of modules and steps described, including but not limiting to: secure authentication, monitoring, verification, integration, feedback, etc., which is implemented in a scalable architecture 100. The system thus represents a comprehensive framework for bridging social media interactions with any computerized environment in a way that is real-time, secure, flexible, and engaging, marking a significant advancement over previous social integration techniques.LIST OF REFERENCE CHARACTERS

[0168] The following table of reference characters and descriptors are not exhaustive, nor limiting, and include reasonable equivalents. If possible, elements identified by a reference character below and / or those elements which are near ubiquitous within the art can replace or supplement any element identified by another reference character.Table 1: List of Reference CharactersDocket No. P14996WOOO

[0169] From the foregoing, it can be seen that the present disclosure accomplishes at least all of the stated objectives.GLOSSARY

[0170] Unless defined otherwise, all technical and scientific terms used above have the same meaning as commonly understood by one of ordinary skill in the art to which embodiments of the present disclosure pertain.

[0171] The terms “a,” “an,” and “the” include both singular and plural referents.

[0172] The term “or” is synonymous with “and / or” and means any one member or combination of members of a particular list.

[0173] As used herein, the term “exemplary” refers to an example, an instance, or an illustration, and does not indicate a most preferred embodiment unless otherwise stated.

[0174] The term “about” as used herein refers to slight variations in numerical quantities with respect to any quantifiable variable. Inadvertent error can occur, for example, through use of typical measuring techniques or equipment or from differences in the manufacture, source, or purity of components.Docket No. P14996WOOO

[0175] The term “substantially” refers to a great or significant extent. “Substantially” can thus refer to a plurality, majority, and / or a supermajority of said quantifiable variables, given proper context.

[0176] The term “generally” encompasses both “about” and “substantially.”

[0177] The term “configured” describes structure capable of performing a task or adopting a particular configuration. The term “configured” can be used interchangeably with other similar phrases, such as constructed, arranged, adapted, manufactured, and the like.

[0178] Terms characterizing sequential order, a position, and / or an orientation are not limiting and are only referenced according to the views presented.

[0179] The “invention” is not intended to refer to any single embodiment of the particular invention but encompass all possible embodiments as described in the specification and the claims. The “scope” of the present disclosure is defined by the appended claims, along with the full scope of equivalents to which such claims are entitled. The scope of the disclosure is further qualified as including any possible modification to any of the aspects and / or embodiments disclosed herein which would result in other embodiments, combinations, subcombinations, or the like that would be obvious to those skilled in the art.

Claims

Docket No. P14996WOOOCLAIMSWhat is claimed is:

1. A computer-implemented method for integrating social media engagements as inapplication actions with real-time feedback, the method comprising: establishing via a secure authentication process an association between a user’s social media account and a profile in a computerized environment; monitoring, by an asynchronous background process, at least one social media platform for a social media engagement made by the user’s social media account that is relevant to the computerized environment; verifying that the social media engagement meets predefined eligibility criteria required by the computerized environment; triggering, in response to successful verification, a corresponding in-application action or reward within the computerized environment; and providing real-time feedback to the user regarding the triggered in-application action in the computerized environment.2 The method of claim 1, wherein establishing the association comprises using an OAuth- based secure authentication protocol to bind the user’s social media account to the profile and to obtain an access token permitting authorized retrieval of the user’s social media engagement data.3 The method of any one of claims 1-2, wherein the social media engagement is selected from the group consisting of: a post, a comment or reply, a share or re-post, a reaction indicating approval, or any combination thereof on the social media platform.4 The method of any one of claims 1-3, wherein verifying the social media engagement comprises checking that the engagement: originates from the authenticated social media account linked to the user’s profile; includes at least one predefined keyword, hashtag, or mention associated with a event; has not been previously processed by the system for a reward; and occurred within an active time window designated for the event.5 The method of any one of claims 1-4, wherein triggering the corresponding inapplication action comprises awarding to the user a benefit selected from the group consistingDocket No. P14996WOOO of: virtual in-application currency, an in-application item, an entry in an in-application raffle or lottery, access to a special event, or any combination thereof.

6. The method of any one of claims 1-5, wherein providing the real-time feedback comprises generating an in-application notification to the user and at least one of: sending an electronic message to the user or updating a user-visible dashboard in the application interface to confirm the in-application action triggered by the social media engagement.7 The method of any one of claims 1-6, wherein the method excludes any step of interpreting crowd-sourced free-form text commands from a public social media chat channel as direct application control inputs, such that no in-application action is initiated based on unanalyzed text commands from unauthenticated users.8 The method of any one of claims 1-7, wherein the in-application action is triggered without requiring an invitation to or participation by any other user, thereby eliminating any dependency on friend network referrals or third-party user acceptance for the social media engagement to affect the application.9 A computer-implemented method of processing a user-submitted social media engagement for in-application rewards, the method comprising: receiving, via a user interface, an input from the user identifying a specific social media post created by the user on the social media platform; verifying, in response to the user input, that the identified social media post meets predefined criteria and originates from the user’s authenticated social media account linked to the profile; updating, upon successful verification, a computerized environment to grant at least one inapplication reward associated with the identified social media post; and providing immediate feedback to the user by displaying a notification of the granted inapplication reward within the application interface.10 The method of claim 9, wherein receiving the input from the user further comprises prompting the user to authenticate the social media account via the OAuth protocol if the social media account is not already linked to the profile, and upon successful authentication, storing a token representative of the user’s authorization for subsequent verifications.Docket No. P14996WOOO11. The method of any one of claims 9-10, wherein verifying that the identified social media post meets the predefined criteria includes confirming that the social media post (i) originates from the user’s linked social media account, (ii) contains any required keyword or hashtag defined by the application, (iii) has not been previously processed for an in-application reward, and (iv) was posted within a predetermined allowable time period for eligibility.

12. The method of any one of claims 9-11, wherein the updating of the application environment and providing of the feedback are performed substantially in real-time upon the user’s submission, without waiting for a scheduled polling cycle, thereby immediately reflecting the user’s social media post in the application progress.

13. A system for integrating social media engagements as actions with real-time feedback, the system comprising: an authentication module configured to securely link a player’s social media account to a player profile in an computerized environment using an authenticated token, thereby binding the player’s in-application identity to their social media identity; a social media monitoring module configured to asynchronously monitor at least one social media platform for engagements made by the player’s linked social media account that are relevant to the computerized environment; a verification engine configured to evaluate whether a detected social media engagement meets predefined eligibility criteria required by the computerized environment and to validate authenticity of the engagement; an integration module configured to translate a verified social media engagement into at least one corresponding in-application action affecting the computerized environment; and a feedback module configured to provide a real-time notification to the player within the computerized environment in response to the in-application action triggered by the social media engagement.

14. The system of claim 13, wherein the social media monitoring module operates as an asynchronous background process that periodically queries or listens to the social media platform for new engagements using the authenticated token, thereby retrieving engagement data without interrupting or degrading real-time performance.Docket No. P14996WOOO15. The system of any one of claims 13-14, wherein the verification engine is configured to maintain a record of social media engagements that have already been processed and to automatically ignore any engagement identified as a duplicate of a previously processed engagement, thereby preventing multiple in-application rewards for the same social media action.

16. The system of any one of claims 13-15, wherein the authentication module utilizes an OAuth protocol to obtain and refresh an access token for the player’s social media account, and stores the token in an encrypted form, such that the system can securely access permitted social media data for the player without exposing or storing the user’s login credentials.

17. The system of any one of claims 13-16, further comprising a user computing device running a client application associated with the computerized environment, wherein the feedback module is configured to transmit said real-time notification to the client application for display to the user during use.

18. The system of any one of claims 13-17, wherein the system is implemented in a context selected from the group consisting of: an online entertainment video game, an educational gamification platform, a promotional marketing campaign system, or a corporate training simulation, such that social media engagements by users in any of these contexts produce corresponding in-game effects and feedback.

19. The system of any one of claims 13-18, wherein the computerized environment is hosted and executed independently of the social media platform, such that no portion of the computerized application runs on the social media platform’s infrastructure.

20. The system of any one of claims 13-19, wherein the social media platform is selected from the group consisting of: a microblogging service, a social networking service, an image or video sharing service, or a live streaming service with an associated chat platform.

21. An apparatus comprising at least one processor and a memory storing instructions which, when executed by the at least one processor, configure the apparatus to: establish a secure authenticated link between a user’s social media account and a profile in a computerized environment;Docket No. P14996WOOO monitor, via an application programming interface (API) of a social media platform, for social media engagements made by the user’s social media account; verify that each said social media engagement satisfies predefined criteria for triggering an event in the computerized environment; trigger at least one corresponding in-application action in the computerized environment in response to a verified social media engagement; and provide a real-time notification to the user pertaining to the in-application action triggered by the social media engagement.

22. The apparatus of claim 21, wherein the social media platform is selected from the group consisting of: a microblogging service, a social networking service, an image or video sharing service, or a live streaming service with an associated chat platform.

23. The apparatus of any one of claims 21-22, wherein the social media engagement is selected from the group consisting of: creating a new post or content item, sharing or re-posting content, replying to an existing post, reacting to a post with an endorsement or like, or any combination thereof.

24. The apparatus of any one of claims 21-22, wherein the memory stores, for each user, a profile record comprising an identifier of the user’s social media account and an associated authentication token, and the at least one processor uses the authentication token to retrieve social media engagement data for that user via the social media platform’s API.

25. The apparatus of any one of claims 21-24, wherein the at least one processor is configured to execute a background thread that periodically invokes the social media platform’s API to fetch new engagements and schedules API calls in accordance with predefined rate limits, thereby ensuring continuous monitoring without exceeding platform API usage limits.

26. The apparatus of any one of claims 21-25, wherein the at least one processor encrypts and securely stores all authentication tokens and user identifiers, and accesses only publicly available content from the social media platform for the user’s engagements, thereby protecting user privacy and complying with data protection regulations.Docket No. P14996WOOO27. The apparatus of any one of claims 21-26, wherein the verification engine comprises a set of rules defining disqualifying conditions for social media engagements, and the at least one processor is configured to ignore any social media engagement that meets any disqualifying condition selected from: lacking a required keyword or identifier associated with the application; originating from an unverified or unauthorized user account; occurring outside of a predefined event time window; or duplicating a previously processed engagement from the user.

28. The apparatus of any one of claims 21-27, wherein the apparatus is configured to perform monitoring, verification, and updating operations asynchronously relative to a primary application execution thread, such that integration of external social media actions is achieved with minimal latency and without interrupting ongoing use in the computerized environment.

29. The apparatus of any one of claims 21-28, further comprising a user interface module configured to provide a frontend interface through which users interact with the application, submit social media links, and receive feedback.

30. The apparatus of any one of claims 21-29, wherein the user interface module is implemented using a React.js framework to provide a dynamic and responsive user experience.

31. The apparatus of any one of claims 21-30, further comprising an authentication module configured to securely authenticate a user and link the user’s social media account to a corresponding profile.

32. The apparatus of any one of claims 21-31, wherein the authentication module utilizes an OAuth 1.0a protocol for the X social media platform to perform said authentication and account linking.

33. The apparatus of any one of claims 21-32, wherein the authentication module ensures secure handling of user credentials and authentication tokens, including secure storage and transmission of said credentials and tokens.Docket No. P14996WOOO34. The apparatus of any one of claims 21-33, further comprising a social media monitoring module configured to interface with one or more social media platform APIs to monitor user engagements associated with events.

35. The apparatus of claim 34, wherein the social media monitoring module utilizes the X API v2 to detect user posts, quote posts, and replies on the X platform that pertain to the events.

36. The apparatus of any one of claims 34-35, wherein the social media monitoring module is configured to aggregate user engagement data from a plurality of different social media platforms.

37. The apparatus of any one of claims 21-36, further comprising an integration module configured to process social media engagements and translate the engagements into corresponding in-application actions, rewards, or events.

38. The apparatus of claim 37, wherein the integration module updates a state or virtual economy based on the processed social media engagements, thereby affecting user progression within the application.

39. The apparatus of any one of claims 37-38, wherein the integration module verifies each social media engagement against one or more predetermined criteria before translating the engagement into the corresponding in-application action, reward, or event.

40. The apparatus of any one of claims 21-39, further comprising a real-time feedback system configured to provide immediate responses to the user based on the user’s social media engagements.

41. The apparatus of claim 40, wherein the real-time feedback system generates instant notifications or updates within the application in response to the user’s social media engagements.

42. The apparatus of any one of claims 21-41, further comprising a database management system configured to store user data, social media interaction data, application state information, and other relevant information for the apparatus.Docket No. P14996WOOO43. The apparatus of claim 42, wherein the database management system comprises a PostgreSQL database managed via a Prisma object-relational mapping (ORM) framework for robust data handling and persistence.

44. The apparatus of any one of claims 21-43, further comprising a background processing module configured to handle asynchronous tasks including continuous monitoring of social media engagements, updating of the application state, and management of scheduled events.

45. The apparatus of claim 44, wherein the background processing module performs said asynchronous tasks without impacting real-time performance of the apparatus.

46. The apparatus of any one of claims 21-45, further comprising a security and compliance module configured to implement data protection measures, including encryption, to safeguard user data within the apparatus.

47. The apparatus of claim 46, wherein the security and compliance module ensures compliance with data privacy regulations including the General Data Protection Regulation (GDPR) and the California Consumer Privacy Act (CCPA).

48. The apparatus of any one of claims 46-47, wherein the security and compliance module manages user consent for data usage and enforces user data privacy preferences.

49. A non-transitory computer-readable medium storing instructions that, when executed by one or more processors, cause the processors to perform operations comprising: linking a user’s social media account to a profile in a computerized environment via a secure authentication process; monitoring at least one social media platform for a social media engagement made by the linked social media account; verifying whether the social media engagement satisfies predefined eligibility criteria of the computerized environment; initiating, if the engagement satisfies the criteria, a corresponding in-application action and updating a state of the computerized environment to reflect the engagement; and providing a notification to the user in real-time to indicate the in-application action triggered by the social media engagement.Docket No. P14996WOOO50. The computer-readable medium of claim 49, wherein the instructions are configured to increase cross-platform user engagement by immediately linking the user’s social media activity with tangible in-application progression and feedback, thereby incentivizing the user to remain active on both the social media platform and within the application.

51. The computer-readable medium of any one of claims 49-50, wherein the instructions implement the monitoring and initiating operations in an asynchronous manner that reduces latency and avoids disruption of core use, thereby providing substantially real-time responses to the user’s social media engagements without impacting core performance.

52. The computer-readable medium of any one of claims 49-51, wherein the instructions include a user interface module that enables the user to submit an identifier or link to a specific social media post for verification, and responsive to said submission, automatically executes the verification and in-application reward triggering operations for that social media post.

53. The computer-readable medium of any one of claims 49-52, wherein the instructions enforce one or more application programming interface usage policies of the social media platform by incorporating rate limiting for application programming interface requests and handling application programming interface errors or exceptions gracefully without loss of engagement data.

54. The computer-readable medium of any one of claims 49-53, wherein the instructions are configured to subscribe to a streaming or real-time feed application programming interface of the social media platform to receive notifications of new social media engagements substantially instantaneously as they occur.

55. The computer-readable medium of any one of claims 49-54, wherein the instructions include an adaptive application programming interface management component that detects changes or updates in the social media platform’s application programming interface or policy requirements and automatically adjusts corresponding application programming interface call parameters or data handling procedures to maintain continuous compatibility and compliance.

56. The computer-readable medium of any one of claims 49-55, wherein the instructions cause the processors to log each verified social media engagement and the corresponding inDocket No. P14996WOOO application action in a persistent data store with timestamps and identifiers, thereby enabling an audit trail for tracking rewards granted for social media engagements.

57. The computer-readable medium of any one of claims 49-56, wherein the instructions are configured to detect if a social media engagement that triggered an in-application reward is subsequently deleted or made private on the social media platform, and in response, to flag or revoke the corresponding in-application reward in the computerized environment according to a predefined policy.

58. The computer-readable medium of any one of claims 49-57, wherein the instructions implement role-based access control for the system such that only authorized processes or administrators can modify sensitive integration settings or access stored authentication tokens, thereby enhancing security.

59. The computer-readable medium of any one of claims 49-58, wherein the instructions include a configuration module that allows an administrator to define mapping rules between types of social media engagements and specific in-application actions or rewards, enabling customization of how different engagements impact the computerized environment.

60. The computer-readable medium of any one of claims 49-59, wherein the instructions are configured to present a consent prompt to the user during initial account linking to obtain the user’s permission for monitoring and using social media engagement data, and to record the user’s consent decision in association with the profile.

61. The computer-readable medium any one of claims 49-60, wherein the instructions exclude any functionality for accessing the user’s social graph or friend list from the social media platform, confining the integration to the user’s own social media engagements and publicly available data associated with those engagements.

62. A system for integrating social media engagements as actions within a gaming environment, the system comprising: a user interface module for user interactions and submissions; an authentication module utilizing OAuth protocols to securely authenticate users and link their social media accounts to game profiles;Docket No. P14996WOOO a social media monitoring module configured to detect specific user engagements on one or more social media platforms; a verification engine that validates the authenticity and eligibility of social media actions based on predefined criteria; a game integration module that processes verified social media engagements into in-game rewards or actions; a real-time feedback system that provides immediate responses to users based on their social media engagements; and a database management system for storing user data, social media interactions, and game state.

63. The system of claim 62, further comprising a background processing module for continuous monitoring and asynchronous updates.

64. The system of any one of claims 62-63, further comprising a security and compliance module that ensures data protection, user consent, and adherence to platform policies.

65. The system of any one of claims 62-64, wherein the social media engagements include interactions on a forum / bulletin based platform.

66. The system of claim 65, wherein the forum / bulletin based platform is selected from the group consisting of X, Facebook, Instagram, TikTok, Pinterest, Reddit, and Venmo.

67. The system of claim of any one of claims 62-66, wherein the social media engagements include interactions on a live-streaming platform.

68. The system of claim 67, wherein the live-streaming platform is selected from the group consisting of X, Facebook, TikTok, Twitch, and Kick.

69. The system of claim of any one of claims 62-68, wherein the social media engagements include interactions on a predominantly peer-to-peer communication based platform.

70. The system of claim 69, wherein the predominantly peer-to-peer communication based platform is selected from the group consisting of SnapChat, WeChat, Whatsapp, Facebook Messenger, and Telegram.Docket No. P14996WOOO71. The system of any one of claims 62-70, wherein the in-game rewards include virtual currency, items, status enhancements, access to special events, entries into in-game lotteries, or personalized content recommendations.

72. The system of any one of claims 62-71, further comprising mechanisms for edge case handling, including deleted social media content, private accounts, rate limiting, application programming interface changes, and duplicate submissions.

73. A method for integrating social media engagements as game moves within a gaming environment, comprising: authenticating users through their social media accounts using OAuth protocols; monitoring specific social media engagements made by authenticated users via a social media monitoring module; verifying the authenticity and eligibility of the social media engagements using a verification engine; processing the verified engagements to trigger in-game actions or rewards via a game integration module; providing real-time feedback to users regarding the integration of their social media engagements into the game through a real-time feedback system; recording all transactions and updates in a database management system; and ensuring compliance with data protection regulations and social media plat- form policies via a security and compliance module.

74. The method of claim 73, further comprising handling edge cases such as deleted content, private accounts, rate limiting, application programming interface changes, and duplicate submissions.

75. The method of any one of claims 73-74, further comprising allowing manual submission of social media engagement URLs by users for immediate processing and reward.

76. The method of any one of claims 73-75, further comprising utilizing background processes to continuously update the game state based on ongoing social media engagements.Docket No. P14996WOOO77. The method of any one of claims 73-76, further comprising adapting to changes in social media platform application programming interfaces and policies by updating system configurations and notifying administrators.

78. The method of any one of claims 73-77, wherein the engagements include posts, comments, likes, shares, replies, or any interaction containing specific keywords, hashtags, or mentions associated with the game.

79. The method of any one of claims 73-78, wherein the real-time feedback includes ingame notifications, email alerts, dashboard updates, and personalized content suggestions.

80. The method of any one of claims 73-79, wherein the social media platforms are selected from the group consisting of: X, Facebook, Instagram, TikTok, Reddit, Twitch, Kick SnapChat, WeChat, Whatsapp, Facebook Messenger, and Telegram.

81. A non-transitory computer-readable medium storing instructions that, when executed by a processor, cause the system to perform the method of any one of claims 73-80.

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