Abstract: A method and system for power source management of a portable device. A power source used to supply electrical energy for a portable device should ideally operate with a constant terminal voltage. However, the terminal voltage of a cell or group of cells used as a source of electrical energy can be expected to reduce in amplitude over its operational lifetime. Near the end of operational lifetime, the terminal voltage of such a source can be expected to decrease rapidly. Furthermore, the source terminal voltage will also exhibit significant variations in amplitude in response to changes in electric current demands on the source. Such source voltage variations can impair or even prevent proper operation of the electronic circuits within the portable device. Power management for proper operation of a portable device is necessary to ensure proper device operation and to prevent loss of data.

Abstract: A modular portable computer system is described. A top modular layer with a coupled display interface and adapted to be interconnected with other modular layers. A second modular layer is interconnected with the top modular layer and other modular layers, for providing a power source to supply operating power to said top modular layer and to those other modular layers present and is disposed beneath the top modular layer. A third modular layer is interconnected with the top modular layer and the second modular layer for providing baseline logic electronics and communication components to the modular portable computer system and is disposed beneath the top modular layer. A universal interconnect for providing electronic and communicative interconnection of each modular layer is disposed at least once on each modular layer.

Abstract: A method for scheduling tasks in a computer operating system comprises a background task creating at least one registered service. The background task provides an execution presence and a data present to a registered service and ranks the registered services according to the requirements of each registered service. The background task also allocates an execution presence and a data presence according to each of the registered services such that each of the registered services is given an opportunity to be scheduled in the dedicated pre-assigned time slice.

Abstract: A method and system for restoring device personality after failure. Specifically, the present invention discloses a method and system for automated personality transfer in a wireless enabled handheld device. In one embodiment, the present invention automatically extracts personality information that is unique and critical to the proper functionality of an electronic device. A personality file containing the personality information is created and stored on the electronic device. The personality file can be then transferred to another electronic device for archival purposes. Thereafter, should the personality information be lost due to device failure, embodiments of the present invention provide for restoring the electronic device back to its original operating state by importing the personality information back into the electronic device.

Abstract: A method for scheduling tasks in a computer operating system comprises a background task creating at least one registered service. The background task provides an execution presence and a data present to a registered service and ranks the registered services according to the requirements of each registered service. The background task also allocates an execution presence and a data presence according to each of the registered services such that each of the registered services is given an opportunity to be scheduled in the dedicated pre-assigned time slice.

Abstract: A method and system for power source management of a portable device, A power source used to supply electrical energy for a portable device should ideally operate with a constant terminal voltage. However, the terminal voltage of a cell or group of cells used as a source of electrical energy can be expected to reduce in amplitude over its operational lifetime. Near the end of operational lifetime, the terminal voltage of such a source can be expected to decrease rapidly. Furthermore, the source terminal voltage will also exhibit significant variations in amplitude in response to changes in electric current demands on the source. Such source voltage variations can impair or even prevent proper operation of the electronic circuits within the portable device. Power management for proper operation of a portable device is necessary to ensure proper device operation and to prevent loss of data.

Abstract: A method for scheduling tasks in a computer operating system comprises a background task creating at least one registered service. The background task provides an execution presence and a data present to a registered service and ranks the registered services according to the requirements of each registered service. The background task also allocates an execution presence and a data presence according to each of the registered services such that each of the registered services is given an opportunity to be scheduled in the dedicated pre-assigned time slice.

Abstract: A method and system for power source management of a portable device. A power source used to supply electrical energy for a portable device should ideally operate with a constant terminal voltage. However, the terminal voltage of a cell or group of cells used as a source of electrical energy can be expected to reduce in amplitude over its operational lifetime. Near the end of operational lifetime, the terminal voltage of such a source can be expected to decrease rapidly. Furthermore, the source terminal voltage will also exhibit significant variations in amplitude in response to changes in electric current demands on the source. Such source voltage variations can impair or even prevent proper operation of the electronic circuits within the portable device. Power management for proper operation of a portable device is necessary to ensure proper device operation and to prevent loss of data.

Abstract: A modular portable computer system is described. In one embodiment, the present invention is comprised of a top modular layer with a coupled display interface and adapted to be interconnected with other modular layers. In the present embodiment, a second modular layer is interconnected with the top modular layer and other modular layers, for providing a power source to supply operating power to said top modular layer and to those other modular layers present and is disposed beneath the top modular layer. In the present embodiment, a third modular layer is interconnected with the top modular layer and the second modular layer for providing baseline logic electronics and communication components to the modular portable computer system and is disposed beneath the top modular layer. In the present embodiment, a universal interconnect for providing electronic and communicative interconnection of each modular layer is disposed at least once on each modular layer.

Abstract: A modular portable computer system is described. In one embodiment, the present invention is comprised of a top modular layer with a coupled display interface and adapted to be interconnected with other modular layers. In the present embodiment, a second modular layer is interconnected with the top modular layer and other modular layers, for providing a power source to supply operating power to said top modular layer and to those other modular layers present and is disposed beneath the top modular layer. In the present embodiment, a third modular layer is interconnected with the top modular layer and the second modular layer for providing baseline logic electronics and communication components to the modular portable computer system and is disposed beneath the top modular layer. In the present embodiment, a universal interconnect for providing electronic and communicative interconnection of each modular layer is disposed at least once on each modular layer.

Abstract: A modular portable computer system is described. A top modular layer with a coupled display interface and adapted to be interconnected with other modular layers. A second modular layer is interconnected with the top modular layer and other modular layers, for providing a power source to supply operating power to said top modular layer and to those other modular layers present and is disposed beneath the top modular layer. A third modular layer is interconnected with the top modular layer and the second modular layer for providing baseline logic electronics and communication components to the modular portable computer system and is disposed beneath the top modular layer. A universal interconnect for providing electronic and communicative interconnection of each modular layer is disposed at least once on each modular layer.

Abstract: A method and system for restoring device personality after failure. Specifically, the present invention discloses a method and system for automated personality transfer in a wireless enabled handheld device. In one embodiment, the present invention automatically extracts personality information that is unique and critical to the proper functionality of an electronic device. A personality file containing the personality information is created and stored on the electronic device. The personality file can be then transferred to another electronic device for archival purposes. Thereafter, should the personality information be lost due to device failure, embodiments of the present invention provide for restoring the electronic device back to its original operating state by importing the personality information back into the electronic device.

Abstract: A method and system for power source management of a portable device. A power source used to supply electrical energy for a portable device should ideally operate with a constant terminal voltage. However, the terminal voltage of a cell or group of cells used as a source of electrical energy can be expected to reduce in amplitude over its operational lifetime. Near the end of operational lifetime, the terminal voltage of such a source can be expected to decrease rapidly. Furthermore, the source terminal voltage will also exhibit significant variations in amplitude in response to changes in electric current demands on the source. Such source voltage variations can impair or even prevent proper operation of the electronic circuits within the portable device. Power management for proper operation of a portable device is necessary to ensure proper device operation and to prevent loss of data.