Abstract: An apparatus includes a substrate and a loop antenna formed using the substrate. The loop antenna includes a set of gaps formed to isolate a first part of the loop antenna from a second part of the loop antenna.

Abstract: An apparatus includes a radio frequency (RF) circuit to transmit or receive RF signals. The apparatus further includes a loop antenna to transmit or receive the RF signals. The apparatus further includes an impedance matching circuit coupled to the RF circuit and to the loop antenna. The impedance matching circuit includes lumped reactive components.

Abstract: An apparatus includes a substrate and a loop antenna formed using the substrate. The loop antenna includes a set of gaps formed to isolate a first part of the loop antenna from a second part of the loop antenna.

Abstract: An apparatus includes a radio frequency (RF) circuit to transmit or receive RF signals. The apparatus further includes a loop antenna to transmit or receive the RF signals. The apparatus further includes an impedance matching circuit coupled to the RF circuit and to the loop antenna. The impedance matching circuit includes lumped reactive components.

Abstract: An apparatus includes a radio frequency (RF) circuit to transmit or receive RF signals. The apparatus further includes a loop antenna to transmit or receive the RF signals. The apparatus further includes an impedance matching circuit coupled to the RF circuit and to the loop antenna. The impedance matching circuit includes lumped reactive components.

Abstract: An apparatus includes a module, which includes an impedance matching circuit. The apparatus further includes a capacitor that is external to the module, and is coupled to the impedance matching circuit. The apparatus further includes a loop antenna to transmit or receive the RF signals. The loop antenna is coupled to the capacitor.

Abstract: An apparatus includes a module, which includes an impedance matching circuit. The apparatus further includes a capacitor that is external to the module, and is coupled to the impedance matching circuit. The apparatus further includes a loop antenna to transmit or receive the RF signals. The loop antenna is coupled to the capacitor.

Abstract: An apparatus includes a module, which includes an impedance matching circuit. The apparatus further includes a capacitor that is external to the module, and is coupled to the impedance matching circuit. The apparatus further includes a loop antenna to transmit or receive the RF signals. The loop antenna is coupled to the capacitor.

Abstract: An apparatus includes a radio frequency (RF) circuit to transmit or receive RF signals. The apparatus further includes a loop antenna to transmit or receive the RF signals. The apparatus further includes an impedance matching circuit coupled to the RF circuit and to the loop antenna. The impedance matching circuit includes lumped reactive components.

Abstract: An apparatus includes a substrate and a loop antenna formed using the substrate. The loop antenna includes a set of gaps formed to isolate a first part of the loop antenna from a second part of the loop antenna.

Abstract: An apparatus includes a radio frequency (RF) circuit to transmit or receive RF signals. The apparatus further includes a loop antenna to transmit or receive the RF signals. The apparatus further includes an impedance matching circuit coupled to the RF circuit and to the loop antenna. The impedance matching circuit includes lumped reactive components.

Abstract: An apparatus includes a substrate and a loop antenna formed using the substrate. The loop antenna includes a set of gaps formed to isolate a first part of the loop antenna from a second part of the loop antenna.

Abstract: An apparatus includes a module, which includes an impedance matching circuit. The apparatus further includes a capacitor that is external to the module, and is coupled to the impedance matching circuit. The apparatus further includes a loop antenna to transmit or receive the RF signals. The loop antenna is coupled to the capacitor.

Abstract: A system and method for performing an intelligent power dongle operation for information handling systems having a serial bus power connection such as a USB type-C power connection. In certain embodiments, the intelligent power dongle includes hardware and firmware to read a legacy adapter PSID information and convert the information to serial information such as USB Type-C baseboard management controller BMC compliant data. In certain embodiments the intelligent power dongle includes power management circuitry the allow selection and proper switching between a low voltage power mode (e.g., a 5V power mode) and a higher voltage power mode (e.g., a 19.5V power mode) depending on a device attached to the intelligent power dongle. In certain embodiments, the intelligent power dongle may be used to power low voltage devices (e.g., devices powered by 5V).

Abstract: An apparatus includes a radio frequency (RF) circuit to transmit or receive RF signals. The apparatus further includes a loop antenna to transmit or receive the RF signals. The apparatus further includes an impedance matching circuit coupled to the RF circuit and to the loop antenna. The impedance matching circuit includes lumped reactive components.

Abstract: A system and method for enhancing ground bounce immunity of cables such as USB type-C cables. More specifically, in certain embodiments, ground bounce immunity is enhanced by making use of alternate modes of operation of cables conforming to the USB 3.1 specification to achieve a higher power over a cable that conforms to the USB 3.1 voltage drop specification requirements on the ground signal paths when the cable is operating at normal power levels (i.e., at a power level supported by the USB 3.1 specification). In certain embodiments, ground bounce immunity is enhanced by making use of alternate modes of operation of USB 3.1 type cables and standard use USB3.1 power delivery negotiation protocol to allow a host and end device to negotiate higher power than what would normally conform to the USB 3.1 specification.

Abstract: A system and method for performing a latency tolerance operation, comprising: determining whether a host and a device coupled to a cable are both capable of communicating information regarding latency tolerance; identifying a host latency tolerance and a device latency tolerance; configuring the host and the device to communicate based upon the host latency tolerance and the device latency tolerance; and, communicating between the host and the device, the communicating conforming to the host latency tolerance and the device latency tolerance.

Abstract: A system and method for providing a multi-modal active cable. In certain embodiments, the multi-modal active cable enables transmission of alternative display information from a source system. More specifically, in certain embodiments, the multi-modal active cable comprises a switching component to allow host system integrated I/O signals to be provided as either I/O adapter integrated I/O signals or dedicated display signals via a single multi-modal active cable. In certain embodiments, the integrated I/O signals comprise Thunderbolt I/O signals. In certain embodiments, the dedicated display signals comprise DisplayPort signals. In certain embodiments the switching component comprises at least one radio frequency (RF) microwave high performance analog switches to switch the high speed digital signals (e.g., signal speeds up to 40 Gbps on each of a plurality of lane). By using such switches, the load capacitance on the signal paths is minimized as the impedance is carefully controlled.

Abstract: A system and method for performing a latency tolerance operation, comprising: determining whether a host and a device coupled to a cable are both capable of communicating information regarding latency tolerance; identifying a host latency tolerance and a device latency tolerance; configuring the host and the device to communicate based upon the host latency tolerance and the device latency tolerance; and, communicating between the host and the device, the communicating conforming to the host latency tolerance and the device latency tolerance.

Abstract: An information handling system (IHS) unambiguously addresses networked devices connected by a local area network (LAN) based network interface controller (NIC) by detecting a device descriptor of LAN-based NIC, determining that the device descriptor indicates a capability for assigning a reserve media access control (MAC) address to the networked device, writing the reserve MAC address in the LAN-based NIC of the networked device, and associating the reserve MAC address with the networked device in an inventory data structure for the IHS.