Abstract: A system and method for secure communication for power over Ethernet (PoE) between a computing device and a switch. Various power management information can be used as inputs in a process for determining a power request/priority. This power management information can be communicated in Layer 2, Layer 3, or higher messaging during initial power allocation and ongoing power reallocation. Encryption of such messaging enables confidentiality, secure allocation processes, and prevention of denial of service attacks.

Abstract: A system and method for modeling a power over Ethernet component using a common information model. With the profiling of components based on the common information model, a remote agent can query status/capabilities or configure a power over Ethernet component based on messaging that is consistent with a power over Ethernet common information model schema.

Abstract: A system and method for operating system power management in a computing device for power over Ethernet (PoE). Computing devices such as portable computers or embedded devices having an operating system (OS) can leverage power management features in an OS. Power management state information such as user parameters, computing device parameters, application parameters, IT parameters, network parameters, etc. can be used to generate power requests that are acted upon by power sourcing equipment.

Abstract: Various embodiments are disclosed relating to remote network device provisioning. A method is disclosed, the method comprising discovering a network address associated with a device on a network based on a discovery response received in response to a discovery request provided to the device. One or more configurable boot options associated with the device may be determined based at least in part on the discovery response. One or more of the configurable boot options may be configured on the device, wherein, upon reboot of the device using the configured boot options, a software image is provided to the device.

Abstract: Methods and systems for coupling a laptop or other portable or hand-held device to a docking system using an Ethernet Interface are disclosed and may comprise interfacing a portable computing device to a docking station using an Ethernet interface. Power may be applied from the docking station to the portable computing device via the Ethernet interface using power over Ethernet (POE) protocol. Audio, video, multimedia, control and/or data signals may be communicated between the docking station and the portable computing device via the Ethernet interface. Data exchanged between the portable computing device and the docking station may be encapsulated in Ethernet frames and tagged appropriately. The interface may be accomplished by directly coupling an Ethernet port of the docking station to an Ethernet port of the portable computing device, or by utilizing an Ethernet cable. The docking station may be an active or passive docking station.

Abstract: A Power-over-Ethernet (PoE) communication system dynamically provides power and data communications over a communications link. In a computing environment made up of one or more personal computing devices (PCD) and/or one or more powered devices (PD), power source equipment (PSE) determines an allocated amount of power to be supplied to each device. The personal computing devices include a unified LAN-On-Motherboard (LOM) that combines the functionality of a powered device (PD) controller of a conventional PD and a LOM of a conventional personal computing device into a single unified subsystem. The unified LOM includes a standard or universal interface between the LOM and PD controller so that different types of PD devices with differing functionality can be easily married to the LOM, without requiring significant hardware or software redesign.

Abstract: A Power-over-Ethernet (PoE) communication system dynamically provides power and data communications over a communications link. In a computing environment made up of one or more personal computing devices (PCD) and/or one or more powered devices (PD), power source equipment (PSE) determines an allocated amount of power to be supplied to each device. The personal computing devices include a unified LAN-On-Motherboard (LOM) that combines the functionality of a powered device (PD) controller of a conventional PD and a LOM of a conventional personal computing device into a single unified subsystem. This allows the personal computing devices to use the existing hardware architecture and software architecture, such as software drivers and Access Protocol Interfaces (API), with few modifications to implement PoE.

Abstract: A Power-over-Ethernet (PoE) communication system dynamically provides power and data communications over a communications link. In an enterprise environment made up of one or more personal computing devices (e.g., personal or laptop computers), a switch determines an allocated amount of power to be supplied to each device. The system includes a switch, a power supply, and one or more personal computing devices having a PoE control module. The PoE control module can be part of, for example, a Power Source Equipment/Powered Device (PSE/PD) system or a LAN-On-Motherboard/Powered Device (LOM/PD) system. A method of dynamically providing power to personal computing devices includes determining the power requirements of each device based on one or more factors, which can include, for example, battery charge status, power load, power mode, etc., of each device. Various algorithms can be used to decide priority in providing power to the devices.

Abstract: The packet processor system has a port for receiving packets from a first network. A line interface unit is connected to the port for determining the types of packets that are received by the port. A generic pipeline stage assembly is connected to the line interface unit and includes a plurality of generic pipeline stages each having a request engine for sending lookup requests to a lookup engine and a modifier engine for receiving lookup results from the lookup engine. A packet memory is connected to a last generic pipeline stage of the generic pipeline stage assembly and an output line interface unit is connected to the packet memory and a second network.

Abstract: The packet processor system has a port for receiving packets from a first network. A line interface unit is connected to the port for determining the types of packets that are received by the port. A generic pipeline stage assembly is connected to the line interface unit and includes a plurality of generic pipeline stages each having a request engine for sending lookup requests to a lookup engine and a modifier engine for receiving lookup results from the lookup engine. A packet memory is connected to a last generic pipeline stage of the generic pipeline stage assembly and an output line interface unit is connected to the packet memory and a second network.