Abstract: A device including a transceiver to support asymmetrical full duplex communication across a connected medium. The transceiver including a transmission circuit to receive a transmission input and transmit the transmission input via a SuperSpeed data driver and a low frequency periodic signal (LFPS) transmitter over the connected medium, and a receiver circuit coupled to transmission circuit, the receiver circuit to filter a received signal from the connected medium through a low pass filter to an LFPS receiver.

Abstract: A system and method is described for simplifying implementation of repeater (e.g., re-driver/re-timer) module implementation in high-data-rate interconnects that carry a relatively low-data-rate clock signal as well as the data stream (e.g., PCIe). At the endpoint, any information critical to the function of the repeater (e.g., the most recent data rate negotiated by a pair of endpoints communicating through the repeater) is embedded in the clock signal by pulse-width modulation as ordered sets. The repeater only needs to read the clock-embedded information rather than decoding the data stream. Thus repeaters for such applications reconstruct the high-rate data-stream while actually decoding only the low-rate clock signal. Because the clock-signal protocol is independent of the data-stream protocol, the repeater's operation is protocol-agnostic with respect to the data-stream.

Abstract: A system and method is described for simplifying implementation of repeater (e.g., re-driver/re-timer) module implementation in high-data-rate interconnects that carry a relatively low-data-rate clock signal as well as the data stream (e.g., PCIe). At the endpoint, any information critical to the function of the repeater (e.g., the most recent data rate negotiated by a pair of endpoints communicating through the repeater) is embedded in the clock signal by pulse-width modulation as ordered sets. The repeater only needs to read the clock-embedded information rather than decoding the data stream. Thus repeaters for such applications reconstruct the high-rate data-stream while actually decoding only the low-rate clock signal. Because the clock-signal protocol is independent of the data-stream protocol, the repeater's operation is protocol-agnostic with respect to the data-stream.

Abstract: A system and method are configured to utilize patient effort to increase cough flow of a subject by limiting airway collapse by causing a series of exsufflation events over an individual exhalation of the subject. A single exhalation of the subject is segmented into a series of exsufflation events by a processor configured to toggle a pressure regulator between a first airway closed mode and a second airway open mode. The processor is configured such that the transitions between the closed and open modes are initiated based on predetermined timing or based on output signals generated by sensors monitoring one or more gas parameters (for example, pressure) in the airway of the patient.

Abstract: A system and method of conducting precision time management in a universal serial bus system with a retimer. The method includes initiating, from the retimer, a link delay management request on an upstream-facing port of the retimer. The method further includes receiving, at a downstream-facing port of the retimer, a link delay management request and responding to the request received on the downstream-facing port.

Abstract: A system can include a host device and a remote terminal. The host device can include a host terminal, the host terminal including a host configuration manager to allocate a data lane to an I/O protocol and a protocol multiplexer to carry out allocation of the data lane based on the allocation of the configuration manager. The remote terminal can include a remote configuration manager. The remote configuration manager is to communicate with the remote configuration manager via a control bus to detect connection of an I/O device to an I/O port and to allocate the data lane to the I/O protocol.

Abstract: Described is an apparatus comprising a first circuitry, a second circuitry, a third circuitry, and a fourth circuitry. The first circuitry may be an elastic buffer coupled to a received clock, a local clock, a received-clock data, and a local-clock data. The second circuitry may assert a first flag when a set of values on the received-clock data matches part of a skip ordered set. The third circuitry may assert a second flag when a set of values on the local-clock data matches part of the skip ordered set. The fourth circuitry may increment a count value upon assertion of the first flag and may stop incrementing the count value upon assertion of the second flag. In some embodiments, additional circuitries may extract a first timestamp from a packet, sum the first timestamp and the count value, and substitute the sum for the first timestamp within the packet.

Abstract: A first state of an interconnect protocol is entered. A particular signal is sent according to the protocol to a device over a link. During the first state, it is detected that a response to the particular signal is received in the first state. It is determined that the device supports a configuration mode outside the protocol based on the received response. The configuration mode is entered based on the response. One or more in-band configuration messages are sent within the configuration mode.

Abstract: An apparatus for retimer presence detection is described herein. The apparatus includes at least one retimer, wherein an algorithm is to enable the at least one retimer to announce its presence by asserting a bit of a presence message during link initialization. The at least one retimer can declare an index and is accessible via the index.

Abstract: Described is an apparatus comprising a first circuitry, a second circuitry, a third circuitry, and a fourth circuitry. The first circuitry may be an elastic buffer coupled to a received clock, a local clock, a received-clock data, and a local-clock data. The second circuitry may assert a first flag when a set of values on the received-clock data matches part of a skip ordered set. The third circuitry may assert a second flag when a set of values on the local-clock data matches part of the skip ordered set. The fourth circuitry may increment a count value upon assertion of the first flag and may stop incrementing the count value upon assertion of the second flag. In some embodiments, additional circuitries may extract a first timestamp from a packet, sum the first timestamp and the count value, and substitute the sum for the first timestamp within the packet.

Abstract: Techniques for reducing idle power consumption of a port are described herein. An example method includes determining device presence using a pull-down resistor disposed in a downstream port. The method also includes initiating a low power state of a link between the downstream port and an upstream device. The method also includes disabling the pull-down resistor in response to initiating the low power state.

Abstract: A source component includes a clock source to generate a clock signal, a plurality of front-end driver circuits to transmit signals to a sink component over a plurality of data lanes of an interconnect, and a clock distribution circuit coupled to the clock source and the plurality of front-end driver circuits. The clock distribution circuit is to distribute a first clock pulse of the clock signal on a first data lane and a second clock pulse of the clock signal on a second data lane. A sink component is to recover the first clock pulse of the clock signal from the first data lane and the second clock pulse of the clock signal from the second data lane, wherein the clock recovery circuit includes clock reconstruction logic to reconstruct the clock signal from the first clock pulse and the second clock pulse.

Abstract: A source component includes a clock source to generate a clock signal, a plurality of front-end driver circuits to transmit signals to a sink component over a plurality of data lanes of an interconnect, and a clock distribution circuit coupled to the clock source and the plurality of front-end driver circuits. The clock distribution circuit is to distribute a first clock pulse of the clock signal on a first data lane and a second clock pulse of the clock signal on a second data lane. A sink component is to recover the first clock pulse of the clock signal from the first data lane and the second clock pulse of the clock signal from the second data lane, wherein the clock recovery circuit includes clock reconstruction logic to reconstruct the clock signal from the first clock pulse and the second clock pulse.

Abstract: Systems and method for operating a low power universal serial bus are described herein. A universal serial bus port includes a link layer and protocol layer that are compatible with a standard USB2 protocol. The link layer and protocol layer to control a physical layer for transmitting and receiving data on a pair of signal lines. The physical layer includes a fully-digital Low-Speed/Full-Speed (LS/FS) transceiver to transmit and receive data on the pair signal lines using single-ended digital communications on the pair of signal lines.

Abstract: A system and method is described for simplifying implementation of repeater (e.g., re-driver/re-timer) module implementation in high-data-rate interconnects that carry a relatively low-data-rate clock signal as well as the data stream (e.g., PCIe). At the endpoint, any information critical to the function of the repeater (e.g., the most recent data rate negotiated by a pair of endpoints communicating through the repeater) is embedded in the clock signal by pulse-width modulation as ordered sets. The repeater only needs to read the clock-embedded information rather than decoding the data stream. Thus repeaters for such applications reconstruct the high-rate data-stream while actually decoding only the low-rate clock signal. Because the clock-signal protocol is independent of the data-stream protocol, the repeater's operation is protocol-agnostic with respect to the data-stream.

Abstract: A system and method is described for simplifying implementation of repeater (e.g., re-driver/re-timer) module implementation in high-data-rate interconnects that carry a relatively low-data-rate clock signal as well as the data stream (e.g., PCIe). At the endpoint, any information critical to the function of the repeater (e.g., the most recent data rate negotiated by a pair of endpoints communicating through the repeater) is embedded in the clock signal by pulse-width modulation as ordered sets. The repeater only needs to read the clock-embedded information rather than decoding the data stream. Thus repeaters for such applications reconstruct the high-rate data-stream while actually decoding only the low-rate clock signal. Because the clock-signal protocol is independent of the data-stream protocol, the repeater's operation is protocol-agnostic with respect to the data-stream.

Abstract: A system and method is described for simplifying implementation of repeater (e.g., re-driver/re-timer) module implementation in high-data-rate interconnects that carry a relatively low-data-rate clock signal as well as the data stream (e.g., PCIe). At the endpoint, any information critical to the function of the repeater (e.g., the most recent data rate negotiated by a pair of endpoints communicating through the repeater) is embedded in the clock signal by pulse-width modulation as ordered sets. The repeater only needs to read the clock-embedded information rather than decoding the data stream. Thus repeaters for such applications reconstruct the high-rate data-stream while actually decoding only the low-rate clock signal. Because the clock-signal protocol is independent of the data-stream protocol, the repeater's operation is protocol-agnostic with respect to the data-stream.

Abstract: A system and method of conducting precision time management in a universal serial bus system with a retimer. The method includes initiating, from the retimer, a link delay management request on an upstream-facing port of the retimer. The method further includes receiving, at a downstream-facing port of the retimer, a link delay management request and responding to the request received on the downstream-facing port.

Abstract: Techniques for embedded high speed serial interface methods are described herein. The method includes issuing a single-ended one (SE1) signal on each of a pair of embedded high speed serial interface data lines, the SE1 indicating a register access protocol (RAP) message follows the SE1 signal. The method also includes accessing a register of an embedded high speed serial interface component based on the RAP message.

Abstract: An apparatus for retimer configuration and control is described herein. The apparatus includes at least one retimer. The is to receive an inband low frequency periodic signal (LFPS), and to send an inband LFPS based pulse width modulation message (LBPM) in response to the inband LFPS. The retimer is configured by decoding the LBPM.