148 results about "Remote desktop" patented technology

The invention is suitable for the field of data processing, and discloses a remote control method of an experiment sandbox, terminal equipment and a storage medium. The remote control method of the experiment sandbox comprises the following steps: if an experiment request initiated by a user side is received, configuring the experiment sandbox according to identity information carried by the experiment request, and querying experiment sandbox connection information corresponding to the identity information; selecting an active target Guacd instance from the Guacd cluster, and establishing an RDP session channel with the experiment sandbox according to the target Guacd instance and the connection information of the experiment sandbox; and responding to a trigger instruction of the user side according to the RDP session channel. The RDP session channel is constructed through the protocol conversion capability of the Guacd cluster, so that the hardware acceleration characteristic of the remote desktop of the Windows system can be fully played, and high-frame-rate graphic instruction transmission is realized.

A service provider may deploy a security threat detection and mitigation platform in a multi-tenant virtualization environment that includes pluggable data collection, data analysis, and response components. The data analysis components may apply machine learning techniques to generate (based on training data sets) and refine (based on subsequently received data sets and feedback about the resulting classifications) predictors configured to detect particular types of security threats, such as denial of service attacks, botnets, scans, or remote desktop attacks. A data collection layer may collect, filter, organize, and curate network packet traffic data, network packet header data, or other information emitted by computing instances or applications executing on them, and provide the curated data as streams to the analysis layer. A response layer may automatically take action in response to threat detections (which may be overridden by an administrator) and may store classification data for subsequent analysis, feedback, and predictor refinement.

An example method of displaying windows in a remote desktop system, includes: obtaining, by a remote desktop client executing on a local computer having a local operating system (OS), information relating a first window to a first virtual desktop generated by the local OS; sending the information from the remote desktop client to a remote desktop server; setting, by the remote desktop server, a tag in a remote window object representing a remote window that corresponds to the first window based on the information, the remote window generated by a remote OS on a remote computer; receiving, at the remote desktop client, at least a portion of the remote window object including the tag; and displaying, by the remote desktop client in cooperation with the local OS based on the tag, the first window on the first virtual desktop.

A WEB end real-time remote connection monitoring method based on an RDP protocol comprises the following steps that a gateway server is maintained between an RDP client and a server, a firewall is configured, a routing rule is added, and RDP flow is forwarded to a local loopback address; the rear end of the gateway server starts an RDP proxy service, receives the RDP traffic forwarded by the firewall, and creates an independent thread to run a Flask application; after the RDP proxy service receives the RDP data packet, an RDP protocol data unit is analyzed according to a protocol format; establishing connection between the RDP proxy service and the Web front end through WebSocket, defining a corresponding event according to the analyzed PDU data type, and transmitting the event to the Web browser end in real time; and the Web end creates a bitmap cache and canvas cache canvas, and displays a remote picture and key data connected with the RDP on a Web page in real time. The scheme not only can effectively monitor the remote desktop session, but also has the advantages of high bandwidth utilization rate, low resource consumption, convenience in cross-platform deployment and the like.

Approaches presented herein provide for the high quality, high resolution reconstruction of a sequence of decimated images, such as may be useful for remote desktop applications. The video frames can be sub-sampled or decimated such that each encoded frame only includes a fraction (e.g., ¼) of the total pixel values for the full resolution frame. A server can analyze the current and previous video frames at full resolution to determine motion or actionable changes, and can apply a lowpass filter to those values based on the type of interpolation to be performed on the client. Static values can remain where no motion is detected. When a client receives the decimated and encoded video frames, the client can determine areas of motion and can perform bilinear interpolation for only those portions of the image where motion is detected, and can otherwise perform weaving of the static pixel values received over a limited sequence of decimated video frames.

The invention provides an edge session seamless migration method, system and device and a storage medium, which are suitable for real-time session scenes such as remote desktops, screen streaming media, interaction control and the like. The method comprises the following steps: generating a migration token based on trigger conditions such as load, link quality and proximity, executing snapshot and incremental log copying of a session state, establishing a parallel communication channel in a target relay, and completing NAT penetration and quality detection; calculating a sequence number and time offset between a source relay and a target relay, constructing a repetition suppression and ACK mapping mechanism, realizing mirror image drainage in a parallel window, and completing main path switching after a QoE condition is satisfied; and rollback control and key context synchronization are supported, and the stability and security of the migration process are ensured. The scheme has the advantages of low time delay, no interruption, high reliability and the like, and is suitable for various edge deployment and complex network environments.

Methods, computer systems, and computer-storage media are provided for facilitating implementation of high dynamic range display technology in a remote desktop environment. In embodiments, graphical data is obtained, at a video driver of a remote desktop server, for presenting in association with a remote desktop client device. The graphical data is provided to a high dynamic range (HDR) video encoder, logically separated from the video driver, based on an indication to use the HDR video encoder to encode. Thereafter, the graphical data is encoded via the HDR video encoder, and such encoded graphical data is provided to a remote access protocol stack in a terminal service of the remote desktop server for transmitting the encoded graphical data to the remote desktop client device associated with the HDR monitor.

Game information for a wagering game is received from a remote gaming table. Live actions by a live dealer for the wagering game are captured by an image capture device. Image information based on the captured live actions are transmitted to the remote gaming table to provide a live holographic image of the dealer at the remote gaming table. An input device receives game input from the live dealer and game instructions based on the game input are transmitted to the remote gaming table to execute game actions at the remote gaming table to generate a game result for the wagering game.

The invention provides an oil-gas exploration remote desktop-oriented quality perception transmission decision method and system and a storage medium, and relates to the technical field of oil-gas exploration data transmission and visualization, and the method comprises the steps: carrying out the spatial partitioning of a to-be-transmitted three-dimensional geologic model, and associating the spatial coordinate information and a geologic feature tag for each data block; collecting a multi-dimensional sensing factor in real time; dynamically determining a target compression ratio for each data block through a decision model based on the multi-dimensional perception factor; carrying out differential compression on each data block according to the target compression ratio, and distributing transmission priorities based on the visual importance weight to carry out streaming transmission; and the client monitors the rendering state and feeds back an adjustment signal to the decision model. According to the invention, the key geological information is ensured not to be distorted due to compression; a compression strategy is dynamically adjusted through a multi-dimensional sensing mechanism, and the contradiction between a single compression strategy and a complex network environment is solved; predictive scheduling is realized based on the user operation intention, and the remote interaction fluency is improved.

The invention belongs to the technical field of financial information security, and discloses a financial data leakproof terminal protection system based on behavior biological recognition, which comprises a cross-platform behavior acquisition module, and is characterized in that compatible adaptation of a PC terminal, a mobile terminal and a remote desktop terminal is realized through a unified behavior acquisition abstraction layer; the method comprises the following steps: acquiring user operation behavior characteristics in real time by adopting a cross-platform container technology and a native plug-in interface, and performing pre-encryption processing and structured coding to form a user behavior sequence; the cognitive trajectory recognition module is used for constructing individual behavior cognitive vectors based on a historical user behavior sequence and generating a user cognitive signature path by adopting self-supervised learning; generating a preliminary risk tag by comparing the current user behavior sequence with the cognitive signature path; identifying a user abnormal behavior track, and constructing a user abnormal track graph structure by extracting user abnormal behavior track features; the security protection level of the terminal is effectively improved, and the terminal adapts to complex and changeable security threat environments.

Methods, computer systems, and computer-storage media are provided for facilitating advanced video encoding in a remote desktop environment. In embodiments, graphical data for presenting in association with a remote desktop client device is obtained at a video driver of a remote desktop server. The graphical data may be provided to a video encoder logically separated from the video driver. The video encoder can then encode the graphical data. The encoded graphical data may be provided to a remote access protocol stack in a terminal service of the remote desktop server for transmitting the encoded graphical data to the remote desktop client device.

Methods and systems for enhanced remote desktop interfaces are described. A computing system may train, using historical or live information, a LAM to execute, within a remote desktop application, textual actions with their parameters if any. A user declarative request (voice or chat) may be interpreted by a LLM to match a specific action (and potentially ask for the corresponding parameters in a conversational way). Subsequently, from the textual action and its parameters, the LAM may execute the action within a remote desktop application and report the result to the user via voice or chat.

Remote desktop protocol (RDP) is a proprietary protocol for controlling machines over a network. In order to overcome certain deficiencies of the protocol a method is disclosed utilized in a zero trust cloud environment, to provide access to a pool of RDP servers, via an RDP client or via a web based interface while simultaneously providing an authenticated and secure policy based experience.

Remote desktop protocol (RDP) is a proprietary protocol for controlling machines over a network. In order to overcome certain deficiencies of the protocol a method is disclosed utilized in a zero trust cloud environment, to provide access to a RDP servers utilizing multifactor authorization services which are not natively supported by RDP. This is performed utilizing an RDP client while simultaneously providing an authenticated and secure policy based experience through a zero trust network.

A terminal access control system uses HTML5-based graphic acceleration for the secure retrieval and transmission of image data. The system detects a Remote Desktop Protocol (RDP) access attempt and identifies an acceleration target by checking if the category of retrieved information corresponds to an HTML5-transmittable image. A Graphic Acceleration Processing Unit (GPU-equipped) performs the HTML5-based acceleration process, analyzes image frames, and generates processed image information for secure transmission. A Viewing Access Control Unit then verifies the processed data against security policies received from a linked policy server. If the security policy is satisfied and the user is logged in, an Image Restoration and Output Unit performs a decryption and restoration process on the received information, outputting the final image content based on the original request.

The approaches presented here provide high-quality, high-resolution reconstruction of a sequence of decimated images, which can be useful, for example, for remote desktop applications. The video frames can be subsampled or decimated so that each encoded frame includes only a fraction (e.g., 1 / 4) of the total image values ​​for the full-resolution frame. A server can analyze the current and preceding full-resolution video frames to determine motion or actionable changes and can apply a low-pass filter to these values ​​based on the type of interpolation to be performed on the client. Static values ​​can remain where no motion is detected.When a client receives the decimated and encoded video frames, the client can determine motion areas and perform bilinear interpolation only for those sections of the image where motion is detected, and otherwise perform a concatenation of the received static pixel values ​​over a limited sequence of decimated video frames.

The application discloses a method for preventing software from being commonly used by multiple users in a remote desktop, and relates to the technical field of software enterprises, which comprises a main program loading entrance, whether it is a non-console session, and whether it is a remote desktop session. The method prevents the program from being simultaneously run by multiple users in multiple sessions, checks whether the current running environment is a non-console session, whether it is a remote desktop session, and whether multiple instances exist simultaneously at the main program loading entrance; checks whether the multiple instances are created by the same user in the same session or by the same user in multiple sessions, that is, the method intercepts multiple users and multiple sessions, limits single user and multiple sessions, or limits the number of instances in a maximum allowed session, thereby effectively preventing the application program from being commonly used through the remote desktop without limitation.

The invention discloses a remote desktop access method, device and equipment, a medium and a program product, and relates to the field of remote desktops, accessed equipment encodes a desktop image and then transmits the desktop image to a remote desktop agent, and the remote desktop agent directly transmits the acquired image data to a user side. And after the user side decodes the image data by itself, through a local browser of the user side, calling a graphic rendering tool of the user side to carry out image rendering so as to obtain a remote desktop image of the accessed equipment. The remote desktop agent no longer undertakes complex image rendering work in remote control and only forwards and transmits the image data, and the user side performs image rendering automatically, so that the load of the remote desktop agent is reduced, the session concurrency of the remote desktop agent is improved, and the user experience is improved. Therefore, the remote desktop agent can process the remote desktop requests of the multiple users at the same time, the anomalies such as use lagging caused by user concurrence are avoided, and meanwhile the hardware cost of the remote desktop agent is reduced.

The present invention discloses a method, system, and computing device for remotely controlling a virtual machine. The method is implemented based on a clientless remote desktop gateway and includes: a browser receiving a first control instruction triggered by a user and containing a virtual machine identifier of a target virtual machine and a first control operation identifier, and sending the first control instruction to a remote desktop gateway backend; a remote desktop gateway client is loaded in the browser; the remote desktop gateway backend sends the first control instruction to a node server via a message queue, so that the node server controls the target virtual machine to perform a first control operation based on the virtual machine identifier and the first control operation identifier. Through the above method, a user can remotely control a virtual machine deployed on a node server through a browser; and the backend directly communicates with the node server via a message queue to remotely control the virtual machine, thereby remotely controlling the virtual machine without logging into the server.

The invention relates to a remote desktop transmission method and system based on focus prediction and hierarchical optimization, and the method comprises the steps: S100, a client captures a user interaction event, calculates a prediction focus region PoR and an active context region ACR through a focus prediction model, and transmits the coordinate information and context labels of the PoR and the ACR to a server through an independent metadata channel; s200, after receiving the information, the server sends a layered rendering instruction to a graphics processor; s300, the server executes differential coding; s400, the server executes adaptive transmission; and S500, the client outputs and displays the complete desktop frame. The main purpose of the invention is to convert the graphic processing of a remote desktop from a traditional passive mode of taking a frame as the center to an active prediction and optimization mode of taking a user focus and content as the center.

The present invention provides a B / S architecture cross-platform and cross-terminal RPA designer system and implementation method, which relates to the field of information technology. The system includes a designer front-end and a designer back-end, both of which are deployed on the server side in the form of Docker containers. The front-end includes a node component area, a work canvas area, and a desktop real-time screen area. Nodes and components in the node component area are dragged to the work canvas area to design and arrange the RPA process robot, and the remote desktop real-time screen is displayed in the corresponding area of ​​the browser. The back-end provides technical support such as service calls, data calculations, logical processing, and node scheduling, and receives UI control elements sent by the Agent side and forwards them to the designer front-end. The Agent side runs in an execution device, receives the UI control elements picked up by the RPA picker, and sends them to the designer back-end. The present invention implements a B / S architecture that uses an RPA designer in a browser to design, develop, and arrange RPA process robots.

A remote desktop frame query method and device relates to the field of remote desktops. The method comprises dividing a current frame into a plurality of target bitmap lines corresponding to displacement directions according to the pixel lengths of the bitmap lines and calculating hash values ​​of the target bitmap lines; storing the hash values ​​in a target two-dimensional array, wherein hash values ​​in the same row constitute a continuous storage dimension and hash values ​​in different rows constitute a discrete storage dimension, or hash values ​​in the same column constitute a continuous storage dimension and hash values ​​in different columns constitute a discrete storage dimension; for each target hash value in the target two-dimensional array, querying and determining whether a first hash value in a first two-dimensional array of a previous frame having the same row and column sequence number as the target hash value is the same as the target hash value; and if the first hash value is the same as the target hash value, determining that the processing mode of the target bitmap line corresponding to the target hash value is movement, so that the client uses the data corresponding to the first hash value as the data of the target hash value, thereby effectively reducing bandwidth usage, CPU consumption and image display delay.

A cloud platform in the address assignment system can forward, to a target remote desktop session host (RDSH) in the system, a first creation request sent by a first client. The target RDSH assigns, to a first session corresponding to the first client, a first IP address obtained through virtualization based on an IP address of the target RDSH. The RDSH returns the first IP address to the cloud platform, and the cloud platform returns a first access response to the first client. Based on this, an IP virtualization function is implemented in a public cloud service, and the RDSH can assign, to clients, a plurality of IP addresses obtained through virtualization, so that different clients obtain network services based on different IP addresses when accessing a same RDSH.

This application provides a remote driving method and related equipment based on remote desktop control technology, belonging to the field of remote driving technology. The method includes: collecting driving environment data and vehicle status data through vehicle body sensors; rendering a local operation screen based on the driving environment data and vehicle status data to obtain a driving operation video stream; synchronizing incremental pixels of the driving operation video stream to a remote operating terminal using remote desktop control technology, and collecting the synchronization time of the pixel increment process; dynamically allocating transmission redundancy to key frames in the driving operation video stream based on the synchronization time; encoding the key frames according to the transmission redundancy to obtain redundant data packets; and synchronizing the incremental pixels of the driving operation video stream and the redundant data packets together to the remote operating terminal. This application can reduce the data interaction latency of remote driving and improve the safety of remote driving.

Methods, computer systems, and computer-storage media are provided for facilitating implementation of high dynamic range display technology in a remote desktop environment. In embodiments, graphical data is obtained, at a video driver of a remote desktop server, for presenting in association with a remote desktop client device. The graphical data is provided to a high dynamic range (HDR) video encoder, logically separated from the video driver, based on an indication to use the HDR video encoder to encode. Thereafter, the graphical data is encoded via the HDR video encoder, and such encoded graphical data is provided to a remote access protocol stack in a terminal service of the remote desktop server for transmitting the encoded graphical data to the remote desktop client device associated with the HDR monitor.

To provide a non-repudiation device that can check the details of input values ​​as well as the overview of the entire operation, and can reduce recording resources. [Solution] The non-repudiation device 11 includes a receiving unit 13a that receives an input value, an image forming unit 13b that displays an image reflecting the input value on the screen of a display 24, a recording unit 27 that records the remote desktop 22 displayed on the screen of the display 24, and an imaging unit 28 that records still images of the screen at a time interval greater than the time interval specified by the recording frame rate.

A computing system may detect a user input. The computing system may capture, a screen buffer indicating a state of a user interface of a remote desktop session. The computing system may capture a screen buffer indicating a state of a user interface of the remote desktop session. The computing system may input the screen buffer into a model, to output user interface elements. The computing system may construct user interface element tree based on the hierarchical position of individual elements detected by the model. The computing system may identify a target UI element, and may identify, using a stored ruleset associated with the target element, an action to perform on the target element, and execute the action. The computing system may add transparent overlay on the screen or supply the user interface element position information to client operating system to enable accessibility and eye tracking based interaction.

The technology described herein enables a remote desktop application to interact simultaneously with peripherals associated with multiple client devices. The technology described herein expands peripheral options to include peripherals associated with a user's other client devices that have a desktop application installed. For example, a user may access a virtual machine on a primary client, but use the touchscreen on a secondary client to control the virtual machine. The primary and secondary clients may have different connection types with the remote virtual machine. The connection types include a full connection and a background connection. In addition to different connection types, the remote desktop applications on the primary and secondary clients may operate in different modes. Two different modes include graphics mode and non-graphics mode.

In an example in accordance with the present disclosure, a computing device is described. The computing device includes a processor and a memory communicatively coupled to the processor and storing executable instructions. The instructions, when executed cause the processor to run a connection broker module to assign a host device to a remote device for a remote desktop connection. The host device is assigned from a pool of host devices available to host the remote desktop connection. The instructions, when executed cause the processor to run a remote desktop module to establish the remote desktop connection between the host device and the remote device. The instructions, when executed cause the processor to establish a communication channel between the connection broker module and the remote desktop module to exchange messages associated with the remote desktop connection.