A frequency hopping Global Positioning System (GPS) system comprises an on-orbit reprogrammable digital waveform generator configured to generate a GPS signal comprising a resilient frequency-hopping spread spectrum GPS signal that hops at a hop rate between two or more GPS channels. The GPS signal further comprises a legacy direct-sequence spread spectrum signal for at least two of the two or more GPS channels. Further, a receiver is configured to receive the GPS signal, wherein the receiver is further configured to decode the GPS signal.

A novel and useful acknowledgement and adaptive frequency hopping mechanism for use in wireless communication systems such as IO-Link Wireless. One or two additional acknowledgement bits are added to packet transmissions. One is a current acknowledgment bit which indicates whether a packet was successfully received anytime during the current cycle. The second bit is a previous acknowledgment bit which indicates whether packets were received successfully anytime during the previous cycle. An adaptive hopping table is constructed using a greedy algorithm which chooses frequencies with the best PER for transmission of higher priority packets, while equalizing the PER products across cycles. A last resort frequency mechanism further improves transmission success by switching to a better performing channel for the last subcycle when previous attempts to transmit a high priority packet have failed.

Methods, apparatus, and processor-readable storage media for generating a frequency hopping arrangement are provided herein. An example computer-implemented method includes determining a starting frequency channel for a frequency hopping arrangement to be used in a communication session by a designated group of devices; calculating a frequency channel step value based at least in part on a predetermined required minimum number of frequency channels and the number of devices in the designated group; and selecting the frequency channel values to be used in the communication session by iterating through frequency channel values for the useable frequency channels at intervals of a random frequency channel selection offset value until a number of frequency channel values equal to the frequency channel step value are selected.

In an aspect of the disclosure, a method, a computer-readable medium, and an apparatus are provided. In one example, the apparatus may be a base station. In certain configurations, the apparatus may transmit information indicating a narrowband frequency hopping pattern to at least one UE. In certain aspects, the narrowband frequency hopping pattern may correspond to a plurality of frames. In certain other aspects, the plurality of frames may include at least one non-anchor channel and being associated with a plurality of anchor channels. The apparatus may communicate with the at least one UE using the narrowband frequency hopping pattern, including concurrently transmitting a discovery reference signal (DRS) in each of the plurality of anchor channels at a start of each hopping frame. In certain aspects, communication on the plurality of anchor channels may occur during the same frames.

Methods, apparatus, and processor-readable storage media for pairing multiple devices into a designated group for a communication session are provided herein. An example computer-implemented method includes processing, via a first processing device, information input by a user in connection with a request to pair the first processing device to one or more additional processing devices, wherein the information comprises a number of additional processing devices to which the first processing device is attempting to pair; implementing, via the first processing device, a pairing algorithm which comprises searching for additional processing devices, in accordance with temporal values associated with the input of the first processing device, that carried out a request to pair to the same number of additional processing devices as the first processing device; and configuring the first processing device to a pairing mode configuration upon successful completion of the pairing algorithm.

According to one configuration, a wireless communication system includes one or more wireless communication devices and gateway hardware. The gateway hardware can be configured to notify the one or more wireless communication devices of a change associated with frequency hopping settings (such as switchover from first frequency hopping settings to second frequency hopping settings). Further, the gateway hardware can include a first radio frequency interface and a second radio frequency interface. In accordance with the frequency hopping settings, the gateway hardware: i) fixedly tunes the first radio frequency interface to a first wireless channel; and ii) while the first radio frequency interface is fixedly tuned to the first wireless channel, the gateway hardware dynamically tunes the second radio frequency interface to hop amongst multiple different wireless channels. The frequency hopping settings support different wireless power levels depending on a number of pseudorandom wireless channels that are hopped.

Methods, apparatus, and processor-readable storage media for generating transmission arrangements for device group communication sessions are provided herein. An example computer-implemented method includes determining a transmission ordering of multiple devices in a designated group with respect to transmitting data packets during a communication session, wherein the transmission ordering comprises device identifiers, attributed to the multiple devices, assigned to sequential transmission slots; determining a scheduled distribution of multiple data packet types transmitted by the multiple devices across the sequential transmission slots, wherein the scheduled distribution comprises an identification of a respective one of the multiple data packet types assigned to each of the sequential transmission slots; and participating in the communication session in accordance with the transmission ordering and the scheduled distribution of the multiple data packet types.

Sharing of frequency generator settings in a network are disclosed. In a particular implementation, a method of wireless communication includes determining, by a user equipment (UE), a first frequency setting for a frequency generator of a UE. The first frequency setting is associated with a first frequency. The method includes modifying the first frequency setting to generate a second frequency setting for the frequency generator. The second frequency setting is associated with a second frequency that is different from the first frequency. The method also includes generating a message that indicates the second frequency setting. The method further includes transmitting the message from the UE to a base station.

An apparatus is comprised of a processor, first and second first Phase-Locked Loop Waveform Generators (PLLWGs), first and second Voltage Controlled Oscillators (VCOs), and a Radio Frequency (RF) switch. The processor generates first and second data program signals to program the first PLLWG and the second PLLWG, respectively, and generates a first and second trigger command signals instructing the first and second PLLWGs to generate first and second analog tuning signals, respectively. The first PLLWG, coupled to the processor, generates the first analog tuning signal. The second PLLWG, coupled to the processor, generates the second analog tuning signal. The first VCO, coupled to the first PLLWG, generates a first channel frequency signal. The second VCO, coupled to the second PLLWG, generates a second channel frequency signal. The RF switch selectively outputs one of a first pre-switch frequency signal and a second pre-switch frequency signal.

A wireless transceiver for pairing and connecting to a plurality of wireless devices is provided. The wireless transceiver includes an antenna module, a power divider, and a plurality of RF chips. The antenna module is communicated to the wireless device. The power divider is electrically connected to the power divider, the RF chips are individually paired with one of the wireless devices, and each one of the RF chips and its paired wireless device have at least one same frequency channel, a wireless signal corresponding to the wireless device is sent and received through the power divider and the antenna module after the radio frequency (RF) chip and the wireless device are successfully paired.