A vehicle controller wake-up circuit uses a switching means and integrated circuit to transition from inactive to operating state.
Shared touch circuitry drives force sensors to reduce device size and power consumption.
A processing apparatus compares representative data from nonvolatile memories during resume to detect mismatches and ensure data integrity.
A port controller state machine autonomously transitions connection states to notify a port manager of USB port attachment events.
A frequency controller adjusts clock signals using active and total counters to manage IP device operations.
Power management logic defers processor exit from reduced power states using platform latency tolerance.
Powered devices request specific power amounts based on current operating modes, eliminating wastage from fixed maximum power supplies.
A low power firmware environment re-instantiates during sleep mode to handle wake events independently of the operating system.
Processor activates specific sensor regions based on touch input to reduce power consumption during fingerprint authentication.
A control unit selects sensors using SENT protocol selection signal duration defined by falling edge intervals.
An image forming apparatus uses an analysis unit to evaluate factors limiting sleep mode entry.
A low-frequency oscillator generates two phase-shifted analog signals to trigger precise sleep mode transitions.
A sensing circuit detects pressure applied to an electronic device housing to determine bending information.
OBFF signaling defers optional transactions to prevent catastrophic shutdowns and reduce system power draw.
Oscillation detection logic derives a sampled clock signal to verify stability before switching, preventing metastability and ensuring glitch-free transitions.
A power-down controller manages logic block states to reduce energy consumption during processor idle periods.
Temperature-based buffer power control resolves the contradiction between high data throughput and excessive energy consumption in network devices.
Multibit slots in SPMI data frames provide device-specific feedback, resolving multicast ambiguity and enabling targeted retransmissions.
Segmenting the boot process across two processors prevents corruption during power loss, eliminating the need for doubled non-volatile memory capacity.
A memory controller dynamically resizes the DRAM bus width to conserve power in system-on-chip designs.
Shunting circuits flatten frequency responses to resolve impedance discontinuities and reflections that degrade signal integrity at high speeds.
A firmware sleep mapper shim intercepts ACPI S3 requests to enter low-power idle states.
A virtual device object emulates remote peripherals as local hardware.
A mobile device manages power states by detecting energy source availability through GPS and charging history data.
A matrix touch sensor acquires data by activating column subsets and measuring row electrical characteristics sequentially.
A system on chip uses two independent boot loaders stored in separate memory regions to initiate the operating system code.
Targeted gate-level simulation of isolated undefined power states improves RTL model accuracy without full regeneration costs.
Frequency regulating circuit adjusts clock speed based on CPU operating state signals to match dynamic loads.
A power control module dynamically manages device functions by monitoring available and consumed power to optimize performance within constrained budgets.
A UPS controller disconnects the load circuit after detecting shutdown to enable automatic device startup.
A CPU core manager allocates sequential and parallel processing tasks to specific processor cores while adjusting electric power supply.
A mobile terminal connection unit uses a controller to detect port values and switch internal switches for compatible external device linking.
A context-aware fusion module selectively disables sensors based on device state inputs.
A DSP power management block detects input signal parameters to trigger low power modes.
A power detecting system segments monitoring into time periods and component weights to identify abnormal usage patterns.
A super capacitor-based auxiliary power supply provides immediate backup energy during sudden power off events, preventing data corruption in memory systems.
Dynamic section deactivation in a storage compute device reduces energy usage while maintaining processing capability for large matrix computations.
A controller adjusts air mover speed based on measured power delivery to storage resources.
A control unit predicts emergency power duration by monitoring battery capacity and electrical consumer demand in elevator cabins.
A motion sensor triggers ambient condition detectors to switch between alarm modes, optimizing power usage through dynamic state changes.
Communication unit transmits connection maintenance notifications during power state transitions.
BIOS programs early CPU power states during POST to constrain boot energy usage.
Locking an RF tuner to a specific frequency detects signal changes for wake-up, resolving the power consumption versus functionality trade-off.
A hierarchical verification model merges and prunes power state tables to reduce computational complexity in circuit design.
A clock control device adjusts processor frequency to maintain stable operation.
A digitally controlled switching network reconfigures electrical connections between power supply sources and protected load devices.
Dynamic power adjustment isolates non-essential hardware components to sustain critical processing units when redundant power supplies fail.
A detection section accumulates environmental data during power saving mode to support application execution.
A device power management state transition latency advertisement mechanism enables software to access components based on advertised recovery values.