Abstract:
A video processing system (See Fig. 3, item 26) is provided for generating a foveated video display with sections having different resolutions (See Fig.3, display of location B). The system uses a network channel for communicating video images having video sections of different resolutions (See Fig. 3, item 46), and includes a video transmission system for processing and transmitting the received video images over the network channel. The system assigns a larger portion of the network channel's bandwidth to a video section with higher resolution. Further, the system includes a video receiving system for receiving and seamlessly combining the first and second video sections of different resolutions to form an output video image on a display device of a control system (See Fig. 3, items 48, 58 and 60). The control system can be operated to generate one or more video transmission system modules to control capturing, transmitting and processing of the video images (See Fig. 3, items 42 and 60).
Abstract:
A session processing module for a server is adapted to communicate across the Internet with a plurality of clients. The processing module runs within a servlet and allocates a session identifier in response to a first input stream of a session between a client and the server; negotiates communication characteristics for the session; and instantiates, according to the communication characteristics, routines for processing subsequent session input streams containing request data and routines for generating session output streams containing response data. A variable depth of penetration to be applied to a dynamically specified quality of service for a session is enabled. Thus, in one embodiment the module relays encrypted request data for a session to a back-end server, and receives from the back-end server encrypted response data for the session for the client. Alternatively, the module itself decrypts input streams containing request data and processes the data to generate output streams containing encrypted response data for the client.
Abstract:
A session processing module for a server 12 adapted to communicate across the Internet with a plurality of clients 18 runs within a servlet 10 and comprises means for allocating a session identifier in response to a first input stream of a session between a client and the server; means for negotiating communication characteristics for the session (authentication, encryption, compression); and means 14 for instantiating, according to the communication characteristics, routines for processing subsequent session input streams containing request data and routines for generating session output streams containing response data. The method enables a variable depth of penetration to be applied to a dynamically specified quality of service for a session. Thus, in one embodiment the module relays encrypted request data for a session to a back-end server 16, and receives from the back-end server encrypted response data for said session for said client. Alternatively, the module itself decrypts input streams containing request data and processes the data to generate output streams containing encrypted response data for said client.
Abstract:
Eine digitale biomedizinische Einheit umfasst ein Substrat, welches einen Hohlraum bildet, eine Versiegelung, welche um den Hohlraum herum ausgebildet ist, eine Abdeckung, welche durch die Versiegelung mit dem Substrat verbunden ist, eine reaktive Metallstruktur, welche eine Mehrzahl von Metallschichten aufweist, wobei die reaktive Metallstruktur eine Komponente des Substrats und/oder der Abdeckung ist, eine Metallspur, welche so konfiguriert ist, dass sie eine von selbst fortschreitende Reaktion zwischen der Mehrzahl von Metallschichten der reaktiven Metallstruktur auslöst und Inhalte des Hohlraums freisetzt, und eine Stromversorgung, welche so konfiguriert ist, dass sie einen elektrischen Strom auf die Metallspur anwendet.