By tracking processing cycles and performance demand, clock gating smooths power peaks and protects media processors from thermal stress.
By splitting one non-constant envelope IF signal into two constant-envelope paths, this RF transmitter cuts PA power use and interference.
Timed bus clock handover keeps the conductor driven during source switching, preventing conflicts, spurious pulses, and disrupted data transfer.
A backplane FEC sublayer compresses a two-bit sync header to one bit, cutting error rates without adding throughput-reducing overhead.
By combining ED threshold checks with Ack errors, this case detects interference and avoids harmful rate fallback by raising retransmissions.
Local FIFO and processing-state monitoring gates the clock instantly, cutting dynamic VLSI power without software timing overhead.
Bus-derived clock generation keeps memory access running while the local oscillator is powered down to cut IC power use.
Power-save acknowledge and PLL disable signals gate clock distribution in deep sleep, cutting microprocessor power without a separate control clock.
A tiled processor-switch-logic architecture improves parallel data transfer and reconfigurable computing without ASIC cost or FPGA power penalties.
Selective DBI algorithms invert parallel bus data when transitions spike, reducing ISI, crosstalk, SSN, and unnecessary power use.
A regulation circuit predicts workload shifts and rebalances clock frequencies to maintain processing speed without exceeding power limits.
Stores and holds I/O pin values before CPU core sleep, cutting standby power while keeping peripheral signals asserted for fast wake-up.
Adaptive transceiver amplitude control cuts IEEE 1394b link power use and electromagnetic noise while preserving stable communication.
By separating the real equivalent channel into a unit matrix and subchannel, STBC decoding cuts ML complexity, power use, and BER.