Abstract: An example includes detecting receiving a bus turn-around (BTA) sequence after detecting a voltage level; sending a BTA acknowledgement in response to the BTA sequence; and sending a configuration command to a peripheral device after the interface is initialized based on the BTA acknowledgement.

Abstract: An example method for initializing an interface includes driving a low voltage signal on data lanes and clock lanes. The method further includes performing a reset sequence and an initialization of a link configuration register. The method also includes driving a high voltage signal to the clock lanes and the data lanes. The method further includes driving a bus turn-around (BTA) sequence on the data lanes. The method also includes detecting that the BTA is acknowledged by a host controller.

Abstract: An example includes detecting receiving a bus turn-around (BTA) sequence after detecting a voltage level; sending a BTA acknowledgement in response to the BTA sequence; and sending a configuration command to a peripheral device after the interface is initialized based on the BTA acknowledgement.

Abstract: An example method for initializing an interface includes driving a low voltage signal on data lanes and clock lanes. The method further includes performing a reset sequence and an initialization of a link configuration register. The method also includes driving a high voltage signal to the clock lanes and the data lanes. The method further includes driving a bus turn-around (BTA) sequence on the data lanes. The method also includes detecting that the BTA is acknowledged by a host controller.

Abstract: An example method for initializing an interface includes driving a low voltage signal on data lanes and clock lanes. The method further includes performing a reset sequence and an initialization of a link configuration register. The method also includes driving a high voltage signal to the clock lanes and the data lanes. The method further includes driving a bus turn-around (BTA) sequence on the data lanes. The method also includes detecting that the BTA is acknowledged by a host controller.

Abstract: An example method for initializing an interface includes driving a low voltage signal on data lanes and clock lanes. The method further includes performing a reset sequence and an initialization of a link configuration register. The method also includes driving a high voltage signal to the clock lanes and the data lanes. The method further includes driving a bus turn-around (BTA) sequence on the data lanes. The method also includes detecting that the BTA is acknowledged by a host controller.

Abstract: An example method for power management of a user interface includes initiating a low power entry at a data lane of the user interface. The method further includes coordinating with a peripheral device to enter into an ultra-low power state. The peripheral device is to initiate a low power entry at the clock lane to enter the user interface into an ultra-low power state in response to detecting the low power entry at the data lane.

Abstract: In one embodiment, an apparatus comprises: a controller to communicate data having a format according to a first communication protocol, the controller comprising a Mobile Industry Processor Interface (MIPI)-compatible controller; an interface circuit coupled to the controller to receive the data, convert the data and communicate the converted data to a physical unit of a second communication protocol, the converted data having a format according to the second communication protocol; and the physical unit coupled to the interface circuit to receive and serialize the converted data and output the serialized converted data to a destination. Other embodiments are described and claimed.

Abstract: An example method for power management of a user interface includes initiating a low power entry at a data lane of the user interface. The method further includes coordinating with a peripheral device to enter into an ultra-low power state. The peripheral device is to initiate a low power entry at the clock lane to enter the user interface into an ultra-low power state in response to detecting the low power entry at the data lane.

Abstract: An example method for initializing an interface includes driving a low voltage signal on data lanes and clock lanes. The method further includes performing a reset sequence and an initialization of a link configuration register. The method also includes driving a high voltage signal to the clock lanes and the data lanes. The method further includes driving a bus turn-around (BTA) sequence on the data lanes. The method also includes detecting that the BTA is acknowledged by a host controller.

Abstract: A PHY having a media independent interface (MII) providing connections to a MAC or to another PHY is disclosed. The invention provides a mechanism for connecting a first PHY with a second PHY, wherein the PHY may act as the media access control side of the MII. The system includes a selection means for selecting the mode of operation for the PHY, a MII for providing a synchronous digital interface carrying un-encoded data over separate transmit and receive paths and a translation entity for generating output enables for controlling the flow of the data, wherein the translation entity establishes in response to mode being selected a first flow of data for connecting the PHY to a Media Access Control entity or a second flow of data for connecting the PHY to a second PHY. The translation entity muxes data and control signals based upon the mode selection. A translation synchronization entity is provided.

Abstract: A Physical Layer Device is disclosed having power savings features operable during auto-negotiation for multiple technologies. Excessive power consumption is alleviated by decreasing the power required by the receiver(s) during parallel detection. The Physical Layer Device includes at least one port, with each port including a parallel detection receiver for receiving data and messages from a connected device, the data and messages including autonegotiation fast link pulses indicating a technology capability of the connected device, a cycler for enabling the parallel detection receiver for a fraction of an autonegotiation period and a controller for controlling the cycler. The enabling of the receiver for each port, whether a multiple or single port device, is staggered to prevent more than one receiver from being enabled at one time.