A hardware-software interface manages dynamic power allocation across processing nodes using a universal coin mechanism.
A distributed storage system pools nodes equipped with backup power supplies to enable write-back caching for accelerated write request processing.
Software power control modules manage hardware controllers via a common interface in distributed computing systems.
Merges sensor hub functions onto the main processor chip using an interprocess communication interface, reducing power consumption and device cost.
A touch control driver adjusts scan frequency based on RAM writing activity.
An adaptive power backup system adjusts ride-through duration based on real-time power delivery characteristics, preventing data loss during outages.
Dynamic credit sharing transfers unused energy reserves between cores, preventing pipeline delays while staying within power supply limits.
Segmenting memory tables into independently controlled power domains reduces energy waste from unused forwarding table sections in network devices.
Segmented functional units with overcurrent protection detect failures while sharing a single power source, reducing circuit complexity.
A system manages dedicated resources for dumping main memory content and CPU states while initiating an adaptive boot process.
Control circuitry detects identical micro-operations to skip redundant processing, reducing energy consumption while maintaining throughput.
Ambient condition sensors monitor environmental factors to switch between communication modes, balancing reliability and power consumption in diverse settings.
A content selection system adapts delivery parameters to match user receptiveness and conserve battery life.
A time of flight sensor detects movable objects within a display field of view to initiate wake-up sequences based on distance changes.
A memory controller adjusts auto-sleep thresholds based on measured idle times to optimize power and performance.
Substitute relay gateways forward tunnel connection requests to wake target devices from power saving mode, eliminating continuous KeepAlive packets.
A microprocessor reduces instructions per clock to lower power consumption during low workload conditions.
A reservation station hold bus detects non-core resource loads and stalls dependent instructions.
Dynamic voltage-frequency scaling reduces peak current transients by lowering operating parameters, aligning electronic design power with thermal design power.
A low power integrated circuit detects keywords in digitized audio streams to trigger processor activation, reducing continuous power consumption.
Dynamic power pattern analysis detects peak consumption functions in embedded devices, generating code changes that reduce fluctuations and extend battery life.
A controller dynamically enables and disables processor cores in a multi-core storage system to manage power consumption.
A monitoring system controller manages multiple bus structures to enable independent operation and unified automation.
A touch-sensitive input layer activates upon physical key actuation to distinguish intentional user contact from accidental surface touches.
Voltage measurement device calibrates connector resistance to compute real-time current without direct sensing.
Information processing apparatus manages power states using a launch preparation reboot flag to enable high-speed startup.
Dynamic terminal assignment enables eMMC support in M.2 connectors without interfering with PCIe interface stability.
BIOS-based voltage regulator training adjusts on-die and external VR outputs to reduce power consumption while maintaining stability.
A parallel power supply apparatus uses a monitoring unit to control a semiconductor switch connecting the second circuit.
Embedded controller compares wireless identification data to log in an operating system automatically.
A communication system sends idle sequences over new high bandwidth lanes to deskew signals without interrupting active data transmission.
A runtime voltage calibrator dynamically updates power supply voltages to compensate for aging degradation in integrated circuits.
A processor control module monitors clock edges to maintain minimum setup times during data transfer between clock domains.
A processor power controller isolates high-current IP circuits to enable reactive throttling within defined partitions.
Dynamic voltage reduction prevents battery swelling and thermal events while maintaining initial charging speed.
A method dynamically adjusts system power settings based on real-time environmental conditions.
A voltage power manager detects system power events and alters sub-system power limits by predetermined increments while maintaining CPU power constraints.
Dynamic query rate coordination prioritizes urgent sensor data to resolve bus contention and reduce reporting latency in NVMe storage systems.
A touch panel input device uses a detection instructor to activate position sensing only over button image areas.
An embedded management board dynamically controls server power supplies based on load status.
Virtual oscillator control stabilizes microgrid inverters by emulating dynamic circuits to resolve decentralized regulation trade-offs.
A digital synthesizable low dropout regulator manages processor core power supplies via a digital bus.
A dual LDO voltage regulation circuit uses a switch to connect reference voltages and enable rapid mode transitions between low power and high power states.
A wireless device adjusts processor frequency and voltage based on real-time data buffer levels to maintain throughput.
Segmented sleep and wakeup messages enable one-to-many procedures for multidrop networks, resolving reliability limits of point-to-point coordination.
A processor compares incoming audio signals against stored speaker models to verify user identity and enable voice activation.