Abstract: An Automated Dynamic low voltage monitoring (LVM) based Low-Power (ADLLP) debug capability for a system-on-chip (SoC) as well as the open/closed-chassis platform for faster TTM (Time to Market) of the final platform or system. ADLLP Debug is achieved by detection of the probe connection between a target system (e.g., SoC) and debug host system. A user can dynamically override the power, clocks and LVM for intellectual property (IP) blocks not part of the debug trace by instructing a Power Management Controller (PMC) via the Inter Processor Communication (IPC) mailbox (or any other suitable mailbox driver) to set the registers in a Target Firmware (TFW) based on the probe and debug use-case.

Abstract: An Automated Dynamic low voltage monitoring (LVM) based Low-Power (ADLLP) debug capability for a system-on-chip (SoC) as well as the open/closed-chassis platform for faster TTM (Time to Market) of the final platform or system. ADLLP Debug is achieved by detection of the probe connection between a target system (e.g., SoC) and debug host system. A user can dynamically override the power, clocks and LVM for intellectual property (IP) blocks not part of the debug trace by instructing a Power Management Controller (PMC) via the Inter Processor Communication (IPC) mailbox (or any other suitable mailbox driver) to set the registers in a Target Firmware (TFW) based on the probe and debug use-case.

Abstract: An apparatus comprises a first semiconductor chip comprising a first communication controller to receive first debug data from a second semiconductor chip; a memory to store the first debug data from the second semiconductor chip and second debug data of the first semiconductor chip; and a second communication controller to transmit the first debug data from the second semiconductor chip and the second debug data of the first semiconductor chip to an output port of the first semiconductor chip.

Abstract: Embodiments provide a method which includes transmitting, by a receiving device (RD), a request message which includes a receiving device identification number (RDIN); receiving, by the RD, a registration message including a measuring device identification number (MDIN) from a measuring device (MD); registering, by the RD, the MD by means of the MDIN if the registration message from the MD includes the RDIN; receiving, by the RD, one or more data messages from the MD, each data message including the MDIN and a physiological parameter; and processing the physiological parameter in each data message, by the RD, if the MD has been registered by the RD. The range of the transmission of the request message between the RD and the MD is shorter than the range of the transmission of each data message between the MD and the RD, and/or the range of the transmission of the registration message between the MD and the RD is shorter than the range of the transmission of each data message between the MD and the RD.