Abstract: Described here is a rectangular, parallelepiped shaped, portable cooking device that consists of a rigid Stand, with attached lid and flaps, that supports multiple food heating containers. A dual purpose transport case/cooking cover, made of heat resistant materials, is a key feature to the design utility by securely transporting the device and acting as a heat efficiency Cover during the food heating process. When used in conjunction with the Stand flaps and lids, this Cover provides many innovations over prior art by preventing heat escape and weather intrusion. Various burner and fuel devices (i.e.: Sterno, Propane, Electric, Coal, Wood . . . ) can be used to provide the heat for this device. The combination of these multi-functional components, in a single compact, portable, modular unit provide significant improvements over current conventional devices by offering multiple options for food heating and serving with increased efficiency in space usage, heat efficiency and transportability.

Abstract: Described here is a rectangular, parallelepiped shaped, portable cooking device that consists of a rigid Stand, with attached lid and flaps, that supports multiple food heating containers. A dual purpose transport case/cooking cover, made of heat resistant materials, is a key feature to the design utility by securely transporting the device and acting as a heat efficiency Cover during the food heating process. When used in conjunction with the Stand flaps and lids, this Cover provides many innovations over prior art by preventing heat escape and weather intrusion. Various burner and fuel devices ( i.e.: Sterno, Propane, Electric, Coal, Wood . . . ) can be used to provide the heat for this device. The combination of these multi-functional components, in a single compact, portable, modular unit provide significant improvements over current conventional devices by offering multiple options for food heating and serving with increased efficiency in space usage, heat efficiency and transportability.

Abstract: A system and method is presented for distributing motion data over a network to a client device. The method involves storing a data model representing an actor, which may be a human actor or any other living or inanimate object. The motion of an actor at a first time and a second time is also recorded. The separate model and motion data items are transferred from a server to a client, thereby enabling the client device to reproduce the actor's motion as captured. The method is implemented by a system comprising a positional data capturing system for capturing motion data representing a position and attitude of an actor at a first time and a second time, a model storage system for storing models of the actors, the models comprising the skeletal geometry and texture of the actor, and a transmission system for transmitting the model in association with corresponding motion data for presentation by one or more clients.

Abstract: Systems and methods are presented that allow the efficient distribution of rich media to clients by maximizing the use of available bandwidth and client processing capabilities. A rich media presentation is divided into discrete components, and a producer of the presentation specifies how a presentation is to be assembled and where resources needed for the presentation are to be found. This information is packaged into a data structure and sent to clients. Clients use this data structure to retrieve the necessary resources for the presentation. Producers are able to prioritize the particular resources that form part of the ultimate presentation according to their importance in the presentation, and clients can retrieve the resources most suitable for their capabilities, including processing power, graphics production speed, and bandwidth.