Abstract: An electronic device includes an electrically insulating substrate, a digital signal processor, and a photonics assembly. The electrically insulating substrate includes a main body. The digital signal processor is disposed on a first surface of the electrically insulating substrate and is arranged relative to the electrically insulating substrate such that a portion of the digital signal processor extends beyond the main body of the electrically insulating substrate. The photonics assembly is disposed adjacent to the electrically insulating substrate and electrically coupled to the digital signal processor.

Abstract: A method includes determining traffic priority information of a first wireless network that includes a first radio configured to communicate according to a first communication protocol on multiple overlapping channels. The method includes determining an operating mode of a second radio as a power save operating mode based on the traffic priority information of the first wireless network. The second radio is included in a second wireless network and is configured to communicate according to a second communication protocol on the overlapping channels. The power save operating mode is configured to avoid interference on the overlapping channels with traffic in the first wireless network. The method includes operating the second radio in the determined power save operating mode.

Abstract: An electro-absorption modulated laser may include a first diode and a second diode. The first diode may be operable to receive a first voltage and generate a first output. The second diode may be coupled to the first diode and may be operable to receive a second voltage. The second diode may generate a photocurrent using the first output and the second voltage.

Abstract: Technology disclosed herein may include an access point (AP) which may include a processing device. The processing device may determine, at the access point, an assigned time for the access point and a wireless device; receive, at the access point, a transmission opportunity (TXOP); identify, at the access point, scheduling information for the TXOP, wherein the TXOP is partitioned into a plurality of TXOP partitions comprising first TXOP partitions associated with the access point and second TXOP partitions associated with the wireless device; and provide, from the access point to the wireless device, scheduling information for the TXOP.

Abstract: An access point may include a processing device. The processing device may determine, at a medium access control (MAC) layer, a first modulation and coding scheme (MCS) for a first set of orthogonal frequency duplex multiplexing (OFDM) symbols. The processing device may determine, at the MAC layer, a second MCS for a second set of OFDM symbols. The processing device may generate, at the MAC layer, one or more aggregate MAC protocol data units (A-MPDUs) including the first MCS and the second MCS. The processing device may send, from the MAC layer to a physical layer (PHY), the one or more A-MPDUs to generate a PHY service data unit (PSDU) including the first MCS and the second MCS.

Abstract: Technology disclosed herein may include an access point (AP) which may include a processing device. The processing device may transmit, at the access point, a first transmission in a first basic service set (BSS1) transmit opportunity (TXOP) in a first shared TXOP; send, from the access point to an additional access point, a first TXOP sharing request to send trigger frame; and receive, at the access point from the additional access point, a first clear to send (CTS) message.

Abstract: A system for calculating a fingerprint across a data set by identifying a data set to hash, the data set comprising a set of data blocks, identifying data within the data set to skip, generating, by a hash engine, a hash for each data block in the set of data blocks within the data set except for the data within the data set to skip, and compressing the data.

Abstract: According to an aspect of an embodiment, a method may include assigning an activation window by an optical line terminal during a portion of an upstream transmitting window in a passive optical network (PON). The method may include performing a first modification to a first upstream transmission. The method may include performing a second modification to a second upstream transmission. The method may include receiving the first upstream transmission from a first optical network unit (ONU) during the activation window, the first ONU synchronized in the PON. The method may include receiving a second upstream transmission from a second ONU during the activation window, the second ONU requesting activation in the PON.

Abstract: Technology is disclosed for an access point (AP) including a processing device and a transceiver. The processing device may receive, at the AP from a station (STA), information about an interference path between the STA and the AP; select, at the AP, a transmit power based on the information about the interference path between the STA and the AP; and determine, at the AP, a transmission type based on the transmit power, wherein the transmission type comprise one or more of a spatial reuse transmission or a spatial nulling transmission. The transceiver may transmit, from the AP to the STA, a transmission based on the transmission type.

Abstract: A system includes at least one station and a transmitter. The transmitter may be operable to transmit a transmission to the at least one station. The transmission may be associated with a bandwidth. The transmitter may adaptively select a modulation and coding scheme for the transmission. The modulation and coding scheme may allocate distributed resource units to the transmission. The distributed resource units are assigned to the at least one station and are distributed throughout the transmission.

Abstract: A method includes obtaining multiple command requests, each including a command address. The method also includes performing a load balancing operation to select a first container of multiple containers to store a first command address. The method further includes storing the first command address in the first data container. The method also includes transmitting the first command address from the first data container to a data transform accelerator. The method further includes obtaining transformed data from the data transform accelerator.

Abstract: An example method of wireless data transmission may include selecting a first frequency segment and selecting a second frequency segment that is different from and non-contiguous with the first frequency segment. The method may further include encoding a first signal with a data frame using the first frequency segment and encoding a second signal with the data frame using the second frequency segment. The method may further include providing the first signal and the second signal for wireless transmission such that at least a portion of the first signal and a portion of the second signal are simultaneously wirelessly transmitted.

Abstract: A multi-phase constant-on-time (COT) system includes a first point-of-load converter configured to provide a first current and a second point-of-load converter configured to provide a second current, and a bus configured to exchange information between the first point-of-load converter and the second point-of-load converter.

Abstract: A system comprises a first phased array radar assembly configured to be attached to a vehicle. The first phased array radar assembly includes a first plurality of antennas arranged in an array and attached to a circuit board. The system also includes one or more circuits attached to the circuit board. Each of the one or more circuits includes transmitter circuitry communicatively coupled to a subset of the first plurality of antennas and receiver circuitry communicatively coupled to the subset of the first plurality of antennas.

Abstract: The described implementations relate a Passive Optical Network (PON). In one implementation, the PON includes an Optical Network Unit (ONU) that has at least one transmitter subsystem component and an associated optical transmitter. The at least one transmitter subsystem component may be configured to be in an enabled state during a timeslot period assigned to the ONU for transmitting an upstream data burst and a disabled state after the timeslot ends.

Abstract: A method of adjusting operating configurations in a networking device to regulate thermal conditions in the networking device to be within a thermal range while optimizing service for the communication activity of networking device. Example implementations include analyzing communication activity of the one or more network interfaces to determine possible operating configurations to service the communication activity. In an example implementation, the possible operating configurations are learned based on the operating configurations and characteristics of the communication activity when the monitored thermal conditions leave and return the thermal range. Further, the one or more network interfaces of the device can be configured based on service levels for portions of the communication activity in order to regulate the thermal conditions.

Abstract: A system may include a voltage regulator controller and a driver. The voltage regulator controller may be configured to maintain a phase voltage. The driver may be associated with the phase voltage. The driver may include a first signal line that may be communicatively coupled to the voltage regulator controller. The driver may be configured to transmit a multiplexed signal on the first signal line to the voltage regulator controller.

Abstract: An example method may include identifying a first transmit identifier (TID) associated with a first node of a wireless network as ready to transmit and adding the first TID to a ready to transmit queue at a first point in time. The method may also include identifying a second TID associated with a second node of the wireless network as ready to transmit, and adding the second TID to the ready to transmit queue at a second point in time later than the first point in time. The method may additionally include selecting the second TID from the ready to transmit queue before selecting the first TID based on a projected increased overall throughput of packets within the wireless network when communicating with the second node before communicating with the first node.

Abstract: A receiver may include a first filter configured to generate a first estimation of a symbol of a received signal and a second filter configured to generate a second estimation of the symbol of the received signal. The receiver may also include a decoder configured to decode the symbol using one of the first estimation and the second estimation and a decision circuit configured to select one of the first estimation and the second estimation to provide to the decoder for decoding of the symbol based on a comparison of the first estimation to an estimation threshold.

Abstract: A co-packaged photonics device includes a photonics device and a photonics driver. The photonics device has an intrinsic impedance and the photonics device is attached to a substrate. The photonics driver is attached to the substrate and is adjacent to the photonics device. The photonics driver includes one or more electrical connections with the photonics device. The photonics driver is configured to drive the photonics device at the intrinsic impedance.