Power Supply For Data Processing TRIZ Cases

Calculating input power via output measurements and efficiency models eliminates noisy direct sensing while reducing measurement power losses.

Power gates isolate inactive circuits while oxide semiconductors minimize leakage current.

Detection circuitry compares supply and consumption levels to trigger shutdowns, preventing hardware damage from undetected resistive shorts.

A plug-and-play base pad hosts pluggable components via an administration chip for customizable IoT systems.

Auxiliary pins carry out-of-band hints to bypass link readiness, reducing latency and power consumption during deep low-power states.

An embedded controller maintains static display content while the processor enters standby, reducing power consumption during idle periods.

A sub-system notifies a main system of specific recovery periods for each power state to enable faster operational transitions.

A switchable AC power circuit connects a load directly to the grid or an emergency inverter path based on network state.

Progressive power cycling with increasing off durations resolves the reliability versus availability contradiction in telematics hardware interfaces.

Segmented display regions activate selectively to show essential information without full unlocking, resolving the trade-off between power conservation and rapid data access.

A system on chip adjusts memory supply power via a handshake protocol between the controller and a dedicated power manager.

A predictive thermal management system forecasts processor junction temperature using real-time power and sensor data to initiate mitigation actions.

A cloud-based credential buffer stores user authorization data remotely to validate access requests without local memory limits.

Nodes record sender identity in non-volatile memory upon detecting low battery voltage with transition-prohibited notifications to identify the drain source.

Circuitry estimates peak power by monitoring internal battery impedance variation to manage device power consumption.

A dynamic clock and voltage scaling scheme adjusts processor frequency to extend shared resource idle periods.

Segmenting non-volatile memory allows selective partition powering, reducing backup energy consumption while maintaining data integrity.

Dynamic port-level power allocation resolves switch-level granularity limits by directing backup energy to high-priority interfaces during failures.

A Power Management Unit sends hibernate commands to communications devices, placing them in low power states.

A power management controller monitors disturbance probabilities and automatically disconnects electronics from power lines to prevent surge damage.

A flash memory controller transfers volatile data to non-volatile storage using a temporary power source.

A multi-die FPGA architecture uses a function scheduler to gate power to unused processing elements.

Hardware-managed master-slave clock control reduces power consumption by dynamically disabling signals for non-executing IP blocks.

Inductive feedback paths replace resistive dividers to eliminate aging errors and reduce power consumption in PFC circuits.

Estimating power adapter surface temperature from charging current enables processor throttling to prevent overheating without adding sensors.

Dynamic current monitoring adjusts component frequency to reduce aggregate demand below supply thresholds.

Rack management controller dynamically adjusts active power supply units based on real-time server load requirements.

A dynamic thermal management system adjusts display refresh rates and brightness to optimize cooling efficiency in dual display devices.

A socket controller maintains network communications during detector removal, resolving loop integrity issues in fire alarm systems.

Independent processors exchange timestamps via inter-processor communication links to align internal clock references.

Synchronizing touch pad coordinates with display pixels enables wireless charging and precise control, eliminating cumbersome wired connections.

A power adapter controller manages redundant power distribution across multiple electronic devices through a daisy-chain configuration.

Synchronizing device idleness with processor schedules eliminates lost power-saving opportunities caused by unsynchronized system devices.

A USB-C power receiver determines supply capability via CC terminals before transition to Default USB.

A multiplication circuit dynamically truncates operands to reduce energy consumption while preserving computationally important bits.

A controller manages power distribution to external devices and internal components within an image processing apparatus.

A bus interconnect controller scales clock frequency based on bandwidth and latency conditions to optimize power consumption.

A virtual switch management system dynamically allocates ports across hosts to power on virtual machines without pre-allocating resources.

A peripheral processor enters low-power mode via a wait-for-event instruction, avoiding interrupt handling latency while reducing power consumption.

Arbitrator circuit selects PWM signals to manage fan duty cycles, preventing overheating during controller failures.

A touch panel detects finger shape attributes to distinguish simultaneous inputs from single or multiple operators.

Programmable registers adjust voltage-controlled oscillators to tune memory IO timing, minimizing power consumption across varying process corners.

A datalogger system transitions operating conditions upon external events to monitor absorbent article saturation levels.

Post-divider circuits reduce spinning core frequencies to lower power consumption while maintaining synchronization correctness and grid integrity.

A system-on-chip adjusts processor core operating frequencies based on permitted power consumption levels to maximize processing performance.

Synchronizing device activities into periodic idle windows allows platforms to enter deeper sleep states, improving energy efficiency for semi-active workloads.

Hardware calibration replaces software overhead by using delay monitors to adjust voltage and frequency in response to thermal changes.

A motherboard controller detects expansion card voltage via an analog-to-digital converter and configures a switch block to route power and signals.

Network switch commands uninterruptible power supply to isolate communication devices, preventing damage from improper shutdowns during power events.

Selective precharge and evaluation in the unified scheduler reduce power waste by avoiding unnecessary cycles on non-ready instructions.