Abstract: An apparatus includes memory and processing circuitry coupled to the memory. The processing circuitry is to decode a client-to-client (C2C) enabling signal received from an access point (AP). The C2C enabling signal indicates the AP is configured for Low Power Indoor (LPI) communication at an LPI signal power level. The signal power of the C2C enabling signal received from the AP is determined. Bluetooth (BT) circuitry of the apparatus is configured for BT communication with a wireless device at the LPI signal power level when the signal power of the C2C enabling signal is above a signal power threshold. The BT circuitry is configured to perform a handshake exchange with the wireless device to initiate the BT communication at the LPI signal power level.

Abstract: Logic to cause transmission of an audio protocol data unit (PDU) during each of the one or more subevents. Logic to generate a feedback request frame as a feedback request PDU. Logic to cause transmission of the feedback request PDU on a feedback channel. Logic to scan the feedback channel for one or more feedback response PDUs transmitted in response to transmission of the feedback request PDU. Logic to modify the one or more parameters of transmission of the audio PDUs in a subsequent broadcast isochronous group (BIG) event based on the one or more feedback response PDUs. Logic to receive of an audio PDU during each of the one or more subevents. Logic to receive the feedback request PDU on a feedback channel. Logic to generate a feedback response PDU in response. And logic to cause transmission of the feedback response PDU on the feedback channel.

Abstract: An electrical circuit for detecting circuit defects and/or for preventing overvoltages in controllers. The electrical circuit including a power controller circuit, encompassing a first transistor, a control loop including an operation amplifier and a first reference voltage source, and feedback resistors, and an overvoltage suppression circuit, encompassing a second transistor, a control loop including an operation amplifier and a reference voltage source, and feedback resistors, the power controller circuit being provided to make a voltage available for the overvoltage suppression circuit and the overvoltage suppression circuit being provided to make a protected voltage available.

Abstract: An electric circuit for testing a power-on reset circuit. The electric circuit including a comparator, which is configured to detect an undervoltage for an input voltage to be compared to a reference voltage and to output an output signal, a first noise filter for filtering out noise from the output signal received as a first input signal for a first time period and for outputting a first filtered output signal of a second noise filter for filtering out noise from a second input signal for a second time period, and for outputting a second filtered output signal, and a digital part having an OR gate for the logical linkage of a first filtered output signal and a second filtered output signal for the output of a power-on reset signal.

Abstract: Provided herein are apparatus and methods for coexistence between Wi-Fi communication and Bluetooth communication. An apparatus for a UE includes: a Wi-Fi module to perform Wi-Fi communication; a Bluetooth module to perform Bluetooth communication; and interface circuitry coupled with both of the Wi-Fi module and the Bluetooth module; wherein the Wi-Fi module is to: obtain event schedule information from the Bluetooth module via the interface circuitry, wherein the event schedule information is to indicate information about a schedule of the Bluetooth communication; and puncture, based on the event schedule information, a secondary channel for the Wi-Fi communication to reserve a sub-channel for the Bluetooth communication. Other embodiments may also be disclosed and claimed.

Abstract: This disclosure describes systems, methods, and devices related to label based isochronous connection update. A central Bluetooth low energy (BLE) device may send a plurality of labels to a peripheral BLE device during a setup of a BLE communication to notify the peripheral BLE device of one or more labels to be used during the BLE communication. The central BLE device may determine a channel variation between the central BLE device and the peripheral BLE device. The central BLE device may send a first label to the peripheral BLE device to indicate an isochronous (ISO) parameter update that will occur at a first time offset based on the channel variation. The central BLE device may implement the isochronous parameter update at the first time offset based on the channel variation.

Abstract: An electric circuit for testing a power-on reset circuit. The electric circuit including a comparator, which is configured to detect an undervoltage for an input voltage to be compared to a reference voltage and to output an output signal, a first noise filter for filtering out noise from the output signal received as a first input signal for a first time period and for outputting a first filtered output signal of a second noise filter for filtering out noise from a second input signal for a second time period, and for outputting a second filtered output signal, and a digital part having an OR gate for the logical linkage of a first filtered output signal and a second filtered output signal for the output of a power-on reset signal.

Abstract: Methods, apparatus, systems and articles of manufacture to improve Bluetooth low energy streaming connection efficiency are disclosed herein. An example method includes accessing a request received at a first device from a second device, the request requesting set up of an isochronous link between the first device and the second device, the request including a configuration identifier. Whether the configuration identifier identifies a configuration stored at the first device is determined. In response to determining that the configuration identifier identifies the configuration stored at the first device, the isochronous link using the stored configuration.

Abstract: An electrical circuit for detecting circuit defects and/or for preventing overvoltages in controllers. The electrical circuit including a power controller circuit, encompassing a first transistor, a control loop including an operation amplifier and a first reference voltage source, and feedback resistors, and an overvoltage suppression circuit, encompassing a second transistor, a control loop including an operation amplifier and a reference voltage source, and feedback resistors, the power controller circuit being provided to make a voltage available for the overvoltage suppression circuit and the overvoltage suppression circuit being provided to make a protected voltage available.

Abstract: Some demonstrative embodiments include apparatuses, systems and/or methods of Peer to Peer communication. For example, a first wireless device may include a radio to send a first Neighbor Awareness Network (NAN) Service discovery frame including a first Robust peer-to-peer attribute, and to receive from a second wireless device a second NAN Service discovery frame including a second Robust peer-to-peer attribute, the first peer-to-peer attribute including first availability information to indicate at least one first channel and one or more first time slots, the second peer-to-peer attribute including second availability information to indicate at least one second channel and one or more second time slots; and a controller to setup a Robust peer-to-peer connection with the second peer-to-peer device based on the first and second availability information.

Abstract: This disclosure describes an enhanced Bluetooth channel establishment. A device may identify an isochronous connection oriented (ICO) command for a Bluetooth communication. The device may send a first ICO start command from a first link layer (LL) to a second LL, and the first LL may receive a first ICO start confirmation from the second LL. The first LL may then send a second ICO start command to a third LL, and the first LL may receive a second ICO start confirmation from the third LL. A third ICO start confirmation may then be sent. The device may also have an ICO request and response exchange between LL's.

Abstract: Methods, apparatus, systems and articles of manufacture to improve Bluetooth low energy streaming connection efficiency are disclosed herein. An example method includes accessing a request received at a first device from a second device, the request requesting set up of an isochronous link between the first device and the second device, the request including a configuration identifier. Whether the configuration identifier identifies a configuration stored at the first device is determined. In response to determining that the configuration identifier identifies the configuration stored at the first device, the isochronous link using the stored configuration.

Abstract: This disclosure describes an enhanced Bluetooth channel establishment. A device may identify an isochronous connection oriented (ICO) command for a Bluetooth communication. The device may send a first ICO start command from a first link layer (LL) to a second LL, and the first LL may receive a first ICO start confirmation from the second LL. The first LL may then send a second ICO start command to a third LL, and the first LL may receive a second ICO start confirmation from the third LL. A third ICO start confirmation may then be sent. The device may also have an ICO request and response exchange between LL's.

Abstract: Some demonstrative embodiments include apparatuses, systems and/or methods of Peer to Peer communication. For example, a first wireless device may include a radio to send a first Neighbor Awareness Network (NAN) Service discovery frame including a first Robust peer-to-peer attribute, and to receive from a second wireless device a second NAN Service discovery frame including a second Robust peer-to-peer attribute, the first peer-to-peer attribute including first availability information to indicate at least one first channel and one or more first time slots, the second peer-to-peer attribute including second availability information to indicate at least one second channel and one or more second time slots; and a controller to setup a Robust peer-to-peer connection with the second peer-to-peer device based on the first and second availability information.

Abstract: Some demonstrative embodiments include apparatuses, systems and/or methods of Peer to Peer communication. For example, a first wireless device may include a radio to send a first Neighbor Awareness Network (NAN) Service discovery frame including a first Robust peer-to-peer attribute, and to receive from a second wireless device a second NAN Service discovery frame including a second Robust peer-to-peer attribute, the first peer-to-peer attribute including first availability information to indicate at least one first channel and one or more first time slots, the second peer-to-peer attribute including second availability information to indicate at least one second channel and one or more second time slots; and a controller to setup a Robust peer-to-peer connection with the second peer-to-peer device based on the first and second availability information.

Abstract: Some demonstrative embodiments include apparatuses, systems and/or methods of Peer to Peer communication. For example, a first wireless device may include a radio to send a first Neighbor Awareness Network (NAN) Service discovery frame including a first Robust peer-to-peer attribute, and to receive from a second wireless device a second NAN Service discovery frame including a second Robust peer-to-peer attribute, the first peer-to-peer attribute including first availability information to indicate at least one first channel and one or more first time slots, the second peer-to-peer attribute including second availability information to indicate at least one second channel and one or more second time slots; and a controller to setup a Robust peer-to-peer connection with the second peer-to-peer device based on the first and second availability information.

Abstract: A capacitive voltage divider arrangement includes a first and second voltage divider and a first and second parasitic capacitance formed between the first and second capacitive voltage divider. The first capacitive voltage divider includes: a signal terminal; first capacitance for coupling the terminal to a reference potential; second capacitance; and third capacitance that is coupleable to the reference potential, the second capacitance being coupled in-between the terminal and third capacitance.

Abstract: A capacitive voltage divider arrangement comprising a first and second voltage divider, a first and second parasitic capacitance being formed between the first and second capacitive voltage divider. The first capacitive voltage divider comprises a signal terminal; a first capacitance for coupling the terminal to a reference potential; a second capacitance; a third capacitance that may be coupled to the reference potential, the second capacitance being coupled in between the terminal and third capacitance.