A conference device comprising a first image sensor for provision of first image data, a second image sensor for provision of second image data, a first image processor configured for provision of a first primary videostream and a first secondary videostream based on the first image data, a second image processor configured for provision of a second primary videostream and a second secondary videostream based on the second image data, and an intermediate image processor in communication with the first image processor and the second image processor and configured for provision of a field-of-view videostream and a region-of-interest videostream, wherein the field-of-view videostream is based on the first primary videostream and the second primary videostream, and wherein the region-of-interest videostream is based on one or more of the first secondary videostream and the second secondary videostream.

An exemplary method includes maintaining a receiver-side mesh-vertices list, receiving duplicative-vertex information from a sender, and responsively reducing the receiver-side mesh-vertices list in accordance with the received duplicative-vertex information, and rendering, using the reduced receiver-side mesh-vertices list, viewpoint-adaptive three-dimensional (3D) personas of a subject at least in part by weighting video pixel colors from different video-camera vantage points of video cameras that capture video streams of the subject, the weighting being performed according to a respective geometric relationship of each video-camera vantage point to a user-selected viewpoint.

A computer-implemented online conferencing transactional platform system comprising an interaction module, a video-conferencing module, and a storage device may allow multiple participants in a video-conference to access, co-browse, collaboratively edit, and sign a transactional document. An interaction module fetches an image of a transactional document and a field identifier for an interactive transactional document element to be filled out from a remotely-connected secure signature API, and displays the image of the document, along with the interactive transactional document element on a webpage interface to a moderator and a signer end user in a video-conference. The interaction module receives a filled-out transactional document in an I-frame from the secure signature API, allowing the signer end user to sign the transactional document using a secure embedded signature process.

A computer-implemented online conferencing transactional platform system comprising an interaction module, a video-conferencing module, and a storage device may allow multiple participants in a video-conference to access, co-browse, collaboratively edit, and sign a transactional document. An interaction module fetches an image of a transactional document and a field identifier for an interactive transactional document element to be filled out from a remotely-connected secure signature API, and displays the image of the document, along with the interactive transactional document element on a webpage interface to a moderator and a signer end user in a video-conference. The interaction module receives a filled-out transactional document in an I-frame from the secure signature API, allowing the signer end user to sign the transactional document using a secure embedded signature process.

A screen sharing system includes a first display apparatus including first circuitry; and a second display apparatus including second circuitry. Both of the first display apparatus and the second display apparatus display an input screen. The first circuitry of the first display apparatus is configured to receive first hand drafted input data that is input to the first display apparatus, and set an edit authority, of a user of the second display apparatus, for the first hand drafted input data. The second circuitry of the second display apparatus is configured to restrict editing of the firsthand drafted input data based on the edit authority of the user set by the first display apparatus.

Methods and systems are provided for enhancing communications mobility in an enterprise using a distributed communication controller. At least one distributed communication controller processes incoming and outgoing calls from a user device such as wearable and peripheral devices. The calls range in type and include voice calls, video calls, and both voice and video calls. Upon receiving an incoming call for the user comprising audio and video content, the distributed communication controller sends a call notification message to the user device that is in proximity to the distributed communication controller. After receiving a call acceptance input from the user device, the distributed communication controller sends the audio content of the call over a first channel to the user device. While the audio content is being sent over the first channel, the distributed communication controller sends the video content to an alternative device over a different second channel.

Methods and systems are provided for enhancing communications mobility in an enterprise using a distributed communication controller. At least one distributed communication controller processes incoming and outgoing calls from a user device such as wearable and peripheral devices. The calls range in type and include voice calls, video calls, and both voice and video calls. Upon receiving an incoming call for the user comprising audio and video content, the distributed communication controller sends a call notification message to the user device that is in proximity to the distributed communication controller. After receiving a call acceptance input from the user device, the distributed communication controller sends the audio content of the call over a first channel to the user device. While the audio content is being sent over the first channel, the distributed communication controller sends the video content to an alternative device over a different second channel.

A device for communication includes one or more processors configured to receive, during an online meeting, a speech audio stream representing speech of a first user. The one or more processors are also configured to receive a text stream representing the speech of the first user. The one or more processors are further configured to selectively generate an output based on the text stream in response to an interruption in the speech audio stream.

A latent code defined in an input space is processed by the mapping neural network to produce an intermediate latent code defined in an intermediate latent space. The intermediate latent code may be used as appearance vector that is processed by the synthesis neural network to generate an image. The appearance vector is a compressed encoding of data, such as video frames including a person's face, audio, and other data. Captured images may be converted into appearance vectors at a local device and transmitted to a remote device using much less bandwidth compared with transmitting the captured images. A synthesis neural network at the remote device reconstructs the images for display.

The present invention, belonging to the technical field of data transmission, relates to an integrated intelligent interaction machine. The integrated intelligent interaction machine comprises a signal transmission device, a processing device, a upper computer and a network transmission device, wherein the signal transmission device is connected to the processing device, the processing device is connected to the upper computer, and the upper computer is connected to the processing device through the network transmission device. The signal transmission device is used to receive a screen transmission signal and transmit it to the processing device, and the processing device is used to process the screen transmission signal to obtain screen transmission data and transmit the screen transmission data to the upper computer. The upper computer is used to connect to an external network and output a network signal to the network transmission device, and the network transmission device transmits the network signal to the processing device. The upper computer is used to connect the external network and the internal device of the equipment to provide the network signal for the processing device, thereby realizing the communication between the processing device and the external network. The screen transmission data and the network signal are transmitted through different paths, so as to carry out screen transmission communication in the equipment and network sharing, respectively, thereby improving the data transmission convenience of the integrated intelligent interaction machine.