Abstract: A midspan charging and data communication device is disclosed. A first USB-C port is electrically connectable to a USB-C host device. A second USB-C port is electrically connectable to a USB-C peripheral device. USB-C midspan device processor and circuitry is electrically connected to the first and the second USB-C ports, configures the first USB-C and second USB-C ports to support USB data communication in a particular USB data link mode, and at least one of (i) delivers power as requested by the USB-C host device from the first USB-C port to the USB-C host device over a first data link between the USB-C host device and the first USB-C port or (ii) delivers power as requested by the USB-C peripheral device from the second USB-C port to the USB-C peripheral device over a second data link between the USB-C peripheral device and the USB-C second port.

Abstract: An electronic connector includes a rigid central region and at least one branch that extends away from the rigid central region. A flexible part is disposed at one end of the at least one branch and adjacent to the rigid central region. A conductor terminal is located at an opposing end of the at least one branch. A rigid part is disposed between the flexible part and the conductor terminal. At least one flexible element is disposed adjacent to one surface of the flexible part. The flexible part of the at least one branch and the at least one flexible element combine to permit the at least one branch to be both (i) sufficiently flexible to permit the at least one branch to be bent, and (ii) sufficiently rigid to permit the at least one branch to subsequently return to its original shape.

Abstract: An electronic connector includes a rigid central region and at least one branch that extends away from the rigid central region. A flexible part is disposed at one end of the at least one branch and adjacent to the rigid central region. A conductor terminal is located at an opposing end of the at least one branch. A rigid part is disposed between the flexible part and the conductor terminal. At least one flexible element is disposed adjacent to one surface of the flexible part. The flexible part of the at least one branch and the at least one flexible element combine to permit the at least one branch to be both (i) sufficiently flexible to permit the at least one branch to be bent, and (ii) sufficiently rigid to permit the at least one branch to subsequently return to its original shape.

Abstract: A Power over Ethernet (PoE) Powered Device (60) is described herein that includes an auxiliary processor (62) that negotiates a power level with a PoE Power Sourcing Equipment using a first link layer (650), means for holding the PoE Powered Device in a low power state, and a second link layer (50) that allows the main processor to communicate over the Ethernet.

Abstract: A Power over Ethernet (PoE) Powered Device (60) is described herein that includes an auxiliary processor (62) that negotiates a power level with a PoE Power Sourcing Equipment using a first link layer (650), means for holding the PoE Powered Device in a low power state, and a second link layer (50) that allows the main processor to communicate over the Ethernet.

Abstract: An inventive Power over Ethernet (PoE) Powered Device (60) includes an auxiliary processor (62) which negotiates a power level with a PoE Power Sourcing Equipment using a first link layer (650), means for holding the PoE Powered Device in a low power state, and a second link layer (50) which allows the main processor to communicate over the Ethernet.

Abstract: An inventive Power over Ethernet (PoE) Powered Device (60) includes an auxiliary processor (62) which negotiates a power level with a PoE Power Sourcing Equipment using a first link layer (650), means for holding the PoE Powered Device in a low power state, and a second link layer (50) which allows the main processor to communicate over the Ethernet.