Power Supply For Data Processing TRIZ Cases

MOSFET-based circuit cuts off standby power to non-essential motherboard components in S5 state, reducing energy loss while maintaining power button readiness.

Dynamic control of soft error protection circuits in a processor core reduces power consumption by disabling features at high voltages, improving performance.

System detects failed low-power transitions within a timeout period and triggers corrective actions to ensure deterministic energy savings.

A locking mechanism adjusts automatic lock timers based on detected environmental security levels.

A clock controller state machine coordinates with subordinate units to manage power transitions.

Detecting pen coordinates and slope allows the system to manage display power without manual user operations.

Point of sale transaction analysis triggers smart device away mode, reducing energy consumption without manual user intervention.

A set-top box sensor detects nearby casting devices to switch the integrated circuit into a high-power standby state.

A logic element monitors dual DC input feeds and controls a switch to connect buses, reducing power loss from unequal voltage levels.

A power management circuit restricts execution of high power events to control voltage supply and clock signal frequency.

A power supply device applies variable voltage to electronic circuits using controlled transistors and a comparator.

A digitizing tablet controller detects electromagnetic induction from a placed stylus to trigger an automatic suspend mode transition.

A clock generator adjusts frequency for a SATA physical layer to match data transmission rates.

A touch driving signal generating device adjusts pulse amplitudes based on detection results to optimize sensing performance.

Logical element mapping tracks device power usage over time periods, reducing operational costs by improving resource management accuracy.

Power breaker cells introduce rail discontinuities, enabling independent power management for irregular sub cores while reducing wasted space.

Touch sensors detect closing gestures to select specific power modes, resolving the trade-off between energy savings and user convenience.

A segmented digital rights management system separates authentication and decryption into distinct processing modules.

A centralized user experience manager coordinates power and thermal mitigation across subsystems to resolve inefficiencies from decentralized control loops.

A power control unit manages integrated and discrete graphics processors to optimize image processing performance.

A computing platform degrades graphics rendering performance to conserve energy and extend operating time.

A touch-sensitive display controller adjusts scanning pulse frequency to conserve power during idle periods.

A power management application dynamically varies processor clock frequency and supply voltage based on execution profiles.

An intelligent interrupt distributor allocates workload across multiple processor cores to enable lower operating voltage and frequency settings.

Segmented power domains allow idle hardware accelerator circuits to shut down while keeping the CPU active, reducing overall system power consumption.

Timed voltage pulses blow fuses in binary patterns to identify specific VRD faults without system power.

A watchdog module initiates a timer to orchestrate graceful server shutdown when mains power fails.

Multi-supply drive charges capacitors in stages while energy recovery exchanges power between capacitors and inductors to cut dissipation by 80%.

A wearable speaker module positions a power transmission structure to overlap the central area of the conductive plate.

Programmable configuration registers adjust circuit biasing to match external clock frequencies, reducing dynamic power consumption in digital devices.

A computing system predicts battery power usage by analyzing upcoming calendar events and task schedules to notify users of potential exhaustion.

A power supply system switches between external and battery power to optimize second-stage DC conversion efficiency.

A policy manager coordinates hardware and software components to optimize resource usage across diverse electronic device configurations.

A power control unit shifts information processing apparatus states while a time measurement unit tracks the shift duration.

A memory controller writes suspendible serial numbers into page metadata to manage data access during sudden power off events.

A peripheral device manages power consumption by transitioning light sources between high-brightness idle and low-brightness power saving states.

Periodic current reduction cycles allow power adapters to detect device faults that stay within normal operating limits, preventing overheating.

A power supply controller manages electrical thresholds for computing components by allowing temporary exceedance during state transitions.

A programmable controller manages bus interface transitions by detecting sequential signaling states on a multidrop differential serial link.

Finite state machines and message accelerators implement USB-PD logic in dedicated hardware blocks to minimize firmware footprint.

An intermediary layer translates compute power caps to shared storage and memory, preventing wastage.

A control unit detects battery capacity and engages an electronic latch to constrain movement, preventing accidental disconnection that causes system crashes.

Coordinated clock gating across synchronous domains offsets power consumption changes, reducing noise in the shared power signal.

Segmented images organized in parent-child hierarchies enable viewpoint-based navigation, reducing data access time while maintaining high-quality display.

A management application coordinates security policy request timing with device power supply schedules to prevent transmission failures.

A rise time detection circuit monitors signal voltage transitions to dynamically adjust I2C bus clock frequency.

Detecting pipeline events early allows proactive throttling that prevents voltage droop without delaying performance.

Segmenting battery backup units into priority groups prevents power budget overruns during simultaneous charging events.