Abstract: A battery replacement system and method for electronic devices which does not require a back-up battery or storage capacitor. A battery is placed within a tunnel formed in the electronic device. The tunnel has an input opening and an output opening. During use, the battery resides within the tunnel where it makes electrical contact with the power terminals of the device. When the battery is exhausted and needs to be replaced, a new battery is introduced into the tunnel via the input opening. As the new battery enters the tunnel, it makes electrical contact with the power terminals, while at the same time serving to push the exhausted battery out the output opening of the tunnel. The tunnel is configured such that the new battery makes electrical contact with the power terminals before the exhausted battery loses contact with the terminals. In this way, there is no interruption in power being supplied to the electronic device.

Abstract: A distributed service subsystem comprises one or more cabinets containing one or more computer systems, one or more administration consoles for controlling the computer systems in the cabinets, and a network interconnecting the administration consoles and the cabinets. Each of the cabinets includes a cabinet module interface controller (CMIC) coupled to and controlling one or more chassis management boards (CMBs). The CMBs are each adapted to communicate with one or more managed components in the cabinet through a component specific interface.

Abstract: A battery replacement system and method for electronic devices which does not require a back-up battery or storage capacitor. A battery is placed within a tunnel formed in the electronic device. The tunnel has an input opening and an output opening. During use, the battery resides within the tunnel where it makes electrical contact with the power terminals of the device. When the battery is exhausted and needs to be replaced, a new battery is introduced into the tunnel via the input opening. As the new battery enters the tunnel, it makes electrical contact with the power terminals, while at the same time serving to push the exhausted battery out the output opening of the tunnel. The tunnel is configured such that the new battery makes electrical contact with the power terminals before the exhausted battery loses contact with the terminals. In this way, there is no interruption in power being supplied to the electronic device.

Abstract: A battery replacement system and method for electronic devices which does not require a back-up battery or storage capacitor. A battery is placed within a tunnel formed in the electronic device. The tunnel has an input opening and an output opening. During use, the battery resides within the tunnel where it makes electrical contact with the power terminals of the device. When the battery is exhausted and needs to be replaced, a new battery is introduced into the tunnel via the input opening. As the new battery enters the tunnel, it makes electrical contact with the power terminals, while at the same time serving to push the exhausted battery out the output opening of the tunnel. The tunnel is configured such that the new battery makes electrical contact with the power terminals before the exhausted battery loses contact with the terminals. In this way, there is no interruption in power being supplied to the electronic device.

Abstract: A distributed service subsystem comprises one or more cabinets containing one or more computer systems, one or more administration consoles for controlling the computer systems in the cabinets, and a network interconnecting the administration consoles and the cabinets. Each of the cabinets includes a cabinet module interface controller (CMIC) coupled to and controlling one or more chassis management boards (CMBs). The CMBs are each adapted to communicate with one or more managed components in the cabinet through a component specific interface.

Abstract: An enhanced interface between a processor and an Asynchronous Transfer Mode (ATM) segmentation controller. A software driver communicates with the controller to efficiently segment protocol data units (PDUs) into ATM cells for transmission. The software driver creates a series of data structures in memory for managing the PDU, wherein the data structures include a linked list of buffer descriptors that describe the size and location of subportions of the PDU. The ATM controller is capable of accessing and interpreting these data structures. As a result, only a single I/O operation is required for the software driver to initiate direct memory access (DMA) operations by the ATM controller to retrieve the data structures from memory and subsequently transmit the PDU.