17 results about "Thin client" patented technology

A semantic robotic device system infers semantics based on data received from at least one transceiver, and further determines that inferred semantics are affirmative or non-affirmative. One or more subsequent semantics are inferred at a subsequent time, to cause a reduction in entropy between the one or more subsequent semantics and an affirmative semantic. The semantic robotic device system generates thin client presentation data in rapport with a semantic goal, and causes the at least one transceiver to transmit the thin client presentation data to a remote device.

Systems and methods to efficiently get precision geometry for a graphic object on a thin client application such as running on a browser or hand-held device. Specifically, a Precision Geometry Client running on a client device sends requests to a corresponding Precision Geometry Service running on a server system to obtain precision geometry primitives that the client device, thereby offloading the processor-intensive precision geometry processing from the client to the server system.

Systems and methods are disclosed for synchronizing a document markup modification across a plurality of devices. One method comprises subscribing to one or more events occurring in a first document markup application, the first document markup application being a first thin client application, and receiving a notification indicating a modification to a document markup in the first document markup application. A cross-compatible markup object associated with the modified document markup may be extracted and transmitted to a second document markup application, the second document markup application being a second thin client application.

A system may include a computing system communicatively coupled to a plurality of client devices. The computing system may receive an indication of an event-based trigger for deploying visualization content and retrieve visualization content associated with the event-based trigger. The visualization content may be generated via a first client device of the plurality of client devices. The computing system may then identify a user associated with the-event based trigger, identify a second client device of the plurality of client devices associated with the user, and send the visualization content to the second client device.

To use a metaverse anytime and anywhere without depending on an HMD or a place.SOLUTION: The TCP (thin client platform) 30 including the MPF (Metaverse platform) 70,71 that provides the Metaverse space to the head mounted display 10 connected to the network 300 stores user information for user authentication for each user who uses the Metaverse space provided by each Metaverse platform 70,71, performs multi-step user authentication through the thin client authentication server 40, the MPF, and the vendor server that provides the application / service in response to the access of the user from the head mounted display 10, and provides the usage environment of the Metaverse space to the head mounted display when all the multi-step user authentication is successful.SELECTED DRAWING: Figure 1

A method includes receiving, by a server computer, a thin client identifier from a thin client on a communication device. The server computer can then retrieve an encrypted first cryptographic key based on the thin client identifier. The encrypted first cryptographic key is a first cryptographic key encrypted with a second cryptographic key. The server computer can initiate sending the encrypted first cryptographic key to the thin client. The server computer then receives an encrypted secret from the thin client, the encrypted secret being a secret encrypted with the first cryptographic key.

The application relates to the technical field of communication, and provides an external device control system and method, an electronic device, a medium and a product. The system comprises a thin client application server, a remote dictionary server Redis server, an application server and a device control application which are sequentially connected in communication. The thin client application server is used for receiving a control request of a thin client to an external device to be controlled, and publishing a request message to the Redis server based on the control request. The Redis server is used for forwarding the request message to the application server. The application server is used for distributing the request message to the device control application corresponding to an operator ID in the request message. The device control application is used for determining the external device to be controlled based on the request message, and controlling the external device to be controlled to perform an operation corresponding to the control request. The application releases the constraint of the external device connection cable, avoids the stability problem of the direct connection of the thin client and the external device, and can improve the control efficiency of the external device based on the thin client.

Systems and methods for performing secure exchange of cryptographic keys (e.g., public keys) between two devices are disclosed. One or more initialization keys are stored at both devices. In some embodiments, at least one device (e.g., a reader device) stores the initialization key (e.g., a symmetric key, an asymmetric key pair) in local memory as part of the device's manufacturing process. The second device (e.g., a thin client device) is capable of receiving the initialization key from a receiving cloud (e.g., a server computer configured to perform terminal processing). The initialization key is used to perform a secure exchange of the corresponding public keys of the devices. Once these public keys have been exchanged, the devices are able to continue establishing a secure connection, which enables subsequent operations to be performed.

Systems and methods to automatically provide graphics rendering optimization settings in real-time to a client device for rendering of graphics by a client application such as running on a browser or hand-held device. Specifically, a specially-configured Graphics Rendering Optimization Client application running on a client device sends requests to a corresponding Graphics Rendering Optimization Service running on a server system to obtain graphics rendering settings in real-time for rendering of graphics by the client application running on the client device, thereby providing automated and real-time graphics rendering optimization with little impact on the performance of the client application and client device. In certain embodiments, the Graphics Rendering Optimization Service employs an Al-based model that is trained and used to predict the graphics rendering settings in real time to improve the rendering performance.

Systems and methods for efficient acquisition of high precision geometry for graphical objects on thin client applications, such as applications running on browsers or handheld devices. Specifically, a high-precision geometry client running on a client device sends a request to a corresponding high-precision geometry service running on a server system to obtain high-precision geometry primitives, the client device converts the high precision geometry primitives to tessellated geometry data and renders the tessellated geometry data on a display of the client device, offloading processor-intensive high precision geometry processing from the client to the server system.

A browser controller for executing a browser application to perform operations related to a web (Internet) application in an operating system, where a web page is hosted by a content provider. In addition, the browser controller is also configured to receive a command from a user of the browser application. The command is related to an element of the web page, the browser controller is used for determining whether the command is allowed to be executed according to a strategy of the web page, if the command is allowed to be executed, the command is executed in a strategy-specific command executor module, and the strategy-specific command executor module is used for executing the command. The command executor module is not a command executor module of the operating system. In addition, the policy indicates which commands are allowed to execute on the web page.

Systems and methods for automatically providing graphics rendering optimization settings in real time to a client device for graphics rendering by a client application, e.g., running on a browser or handheld device. Specifically, a specially configured graphics rendering optimization client application running on a client device sends a request to a corresponding graphics rendering optimization service running on a server system to obtain real-time graphics rendering settings for graphics rendering by the client application running on the client device, as a result, automated and real-time graphics rendering optimization is provided with little impact on the performance of client applications and client devices. In some embodiments, the graphics rendering optimization service employs an AI-based model that is trained and used to predict graphics rendering settings in real time to improve rendering performance.

A System for managing an operating system using tokenized identity. The system maintains a token repository storing user tokens, Unique-Numbers, and Public-Keys. The system registers users by processing biometric samples to compute a Secret-Key, generating a Unique-Number, and computing a Public-Key. The Public-Key (P1) is stored in the token repository, on the provisioned virtual remote device, and on a thin client application on a personal local device. The Unique-Number is stored on the provisioned virtual remote device and in the token repository. Further, the system receives session signing requests from a proxy-user management application integrated with various device Operating Systems via thin client sessions. The system authenticates users through a two-step process using real-time biometric samples, and comparing computed Real-Time-Unique-Numbers with stored Unique-Numbers. Upon authentication, the system fetches user tokens, identifies corresponding proxy-user management application instances, captures user approval, and affixes biometrically authenticated signatures in session logs.

A semantic robotic device system stores a semantic goal and semantic profiles having semantic artifacts. A processor is configured to infer further semantic artifacts in rapport with semantic goals based on an application of semantic artifacts from a semantic profile and an affirmative semantic resonance in rapport with semantic artifacts. The processor is configured to generate thin client presentation data as a representation of semantic artifacts in association with first and second identities, and causes at least one transceiver to transmit the thin client presentation data to a remote device.

Systems and methods to automatically provide graphics rendering optimization settings in real-time to a client device for rendering of graphics by a client application such as running on a browser or hand-held device. Specifically, a specially-configured Graphics Rendering Optimization Client application running on a client device sends requests to a corresponding Graphics Rendering Optimization Service running on a server system to obtain graphics rendering settings in real-time for rendering of graphics by the client application running on the client device, thereby providing automated and real-time graphics rendering optimization with little impact on the performance of the client application and client device. In certain embodiments, the Graphics Rendering Optimization Service employs an AI-based model that is trained and used to predict the graphics rendering settings in real time to improve the rendering performance.

1. Name of the designed product: desktop thin client. 2. Use of the designed product: for intelligent interaction of counter service. 3. Design points of the designed product: in shape. 4. Picture or photo best indicating the design points: perspective view.

In order to improve colour quality control of paint coatings, described herein is a colour quality control server that is configured to provide a software distribution model, i.e. Software as a Service (SaaS). With the colour quality control server, the capability provided to a user is to use a collection of (web-)services which are responsible for web-based colour quality control running on a cloud infrastructure. These (web-)services are accessible from various client devices through a thin client interface such as a web browser, a mobile app, or a desktop app.