Cross-Platform Metacommunication Layer for Inclusive Videoconferencing
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Solution Overview
Problem
Existing video conferencing technologies fail to effectively communicate non-verbal cues and user-specific information, leading to social biases and limited access for individuals with disabilities, and are platform-dependent, restricting flexibility and inclusivity.
Innovation Solution
A platform-agnostic videoconference metacommunication system that integrates metacommunicative signals, such as superimposed media and sentiment analysis, to enrich videoconferencing experiences, allowing users to edit and update these signals, and includes features like automatic speech translation and context recognition, accessible through a metacommunication server.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If traditional video conferencing is used, then platform compatibility is limited, but flexibility and inclusivity are reduced
Solution Approach 1:
The patent implements a universal metacommunication layer that functions across multiple video conferencing platforms (Zoom, Teams, WebEx, etc.) through platform-agnostic APIs and web-based technologies. This allows the same metacommunication features to operate universally across different platforms without requiring platform-specific implementations, thereby resolving the contradiction between platform compatibility and flexibility.
2Loss of information
If video conferencing transmits only visual and auditory information, then transmission simplicity is maintained, but non-verbal cues and user-specific information are lost
Solution Approach 1:
The patent adds a new dimension to video conferencing by introducing metacommunication channels that operate parallel to the traditional audio-visual stream. These additional channels transmit non-verbal cues, sentiment analysis, and user-specific information without replacing the core communication modalities, thereby reducing information loss while managing complexity through dimensional expansion.
3Loss of information
If metacommunication channels are added to video conferencing, then communication enrichment is improved, but system complexity increases
Solution Approach 1:
The patent segments the communication system into distinct layers: the traditional audio-visual communication layer and the metacommunication layer. Each layer handles specific types of information independently, with the metacommunication layer capturing non-verbal cues, sentiment, and contextual data separately from the primary communication stream. This segmentation reduces overall system complexity by creating modular, independent processing pathways.
4Adaptability or versatility
If platform-specific video conferencing solutions are used, then integration simplicity is maintained, but accessibility and adaptability are limited
Solution Approach 1:
The patent introduces an intermediary metacommunication layer that sits between the user and the various video conferencing platforms. This intermediary layer uses standardized web technologies and APIs to interface with multiple platforms uniformly, acting as a mediator that translates between different platform protocols and the metacommunication features, thereby improving cross-platform accessibility while managing integration complexity.
Data Source
AI summary
The technology includes a system to assist and enrich a videoconference session with metacommunication channels provided by a metacommunication service. The metacommunication service is hosted by a server of the system to function across different videoconference platforms. The system streams a metacommunication channel to multiple client devices of participants of a videoconference session. The metacommunication channel is configured to generate a video feed that modifies a camera feed of the videoconference session based on metacommunicative signals. The system generates first metacommunicative signals based on an output of a software application. The system enables a device connected to the videoconference session to access the server of the system and cause the metacommunicative service to generate second metacommunicative signals. The system updates the metacommunication channel based on the first metacommunicative signals and the second metacommunicative signals.