Power Supply For Data Processing TRIZ Cases

Virtual computed devices replicate physical power attributes, enabling remote configuration that optimizes consumption while reducing setup complexity.

A system selects between Bluetooth and proprietary RF radios to manage peripheral device connectivity.

A serial bus controller calculates a delay period based on arbitration phase length to schedule command transmission at a specific time.

A low power microcontroller uses a state machine to retrieve data from peripheral devices without activating the entire processor.

Current sensing detects excessive load before voltage drops, maintaining stable supply by triggering interrupts.

A controller dynamically adjusts power allocation between an FPGA and a general-purpose processor during runtime reconfiguration.

Detect external graphics subsystems to transmit power enable signals and activate PCIe channels, resolving motherboard space constraints.

A power manager detects supply voltage variations to generate a detecting signal for dynamic input current control.

Local voltage regulation reduces power dissipation and wake-up latency in integrated circuits by maintaining optimal supply levels.

A dedicated controller monitors the hinge angle during wake-up to turn off the keyboard and touch panel, preventing misoperations while saving energy.

Intelligent load switch circuits detect current limits and decouple faulty power channels to maintain uninterrupted output voltage.

Stepwise reference adjustment prevents output undershoot and switch damage during rapid voltage transitions.

A hardware voltage and frequency scaling system selects processor performance settings using workload feedback.

Main board detects power requirements and adjusts clock signals to enable smart network interface card operation across diverse manufacturers.

A packet processing apparatus adjusts clock supply based on buffer vacancy to reduce power consumption.

Segmented power rails and dynamic voltage switching reduce leakage current during standby modes while maintaining operational readiness.

Interrupt-driven control units reduce battery drain by activating the multimedia processor only upon user input, avoiding continuous polling.

A memory controller generates power commands to transition between operational states.

Demotion circuitry limits computing devices to identified crossover thresholds, reducing battery drain during wake intervals.

A semiconductor device uses a power-supply switching circuit to route voltage from a second power supply to the control circuit.

A voltage regulation module applies empirically derived temperature coefficients to adjust monitored current values for precise power control.

Connectors use electrode combinations to attach modules, reducing empty space in high-density servers.

Expanded function datagrams segment address fields to address multiple masters, reducing latency and improving data transfer performance.

Thermal energy conversion circuit generates sensing temperatures to drive a programmable control chip for secure device power-on signals.

A power management circuit uses a real-time clock to sequence startup signals for processor supply voltages.

A memory controller adjusts volatile data size based on backup power supply capability to maintain system integrity.

Dynamic power capping balances workload across data center UPS units to resolve uneven wear distribution while maintaining system reliability.

Absolute capacitance changes guide transcapacitive drive orders, reducing detection latency while maintaining input object location accuracy.

A power management module maps dynamic random access memory to non-volatile random access memory during server transitions.

Dynamic memory controller switches between volatile and nonvolatile modes based on access patterns.

A switching circuit unit manages power supply to an image forming apparatus using stored status information from a memory unit.

A clock divider circuit with a transmission gate multiplexer adjusts frequency to stabilize processor logic.

A power management controller adjusts voltage and frequency based on user-perceptible operations.

A power-aware framework places applications across virtualized servers to minimize energy consumption and migration overhead.

A system power manager controls active power assertions using a contextual timer to transition devices into low power states.

Powered devices request specific power levels from sourcing equipment, resolving IEEE 802.3af waste and supporting higher capacity demands.

A power management unit accumulates energy budget during low utilization periods to increase clock signal frequency when high activity bursts are detected.

A serial slave device measures load capacitance using a fixed current and timing threshold voltage to determine output driver strength.

A dual-mode storage system manages data transfer between high and low power disk drives to reduce energy consumption.

Preset voltage thresholds prioritize module shutdown during partial power loss, ensuring deterministic operation of heterogeneous ASICs.

A power manager toggles discrete processor states to maintain a stable virtual operating point between fixed frequency and voltage levels.

Microcontroller disables low line capabilities to prevent network overload during voltage brownouts.

Automated station number assignment eliminates manual configuration errors and reduces operator man-hours in programmable controller networks.

An image forming apparatus displays function-specific screens upon returning from power-saving states based on detected document presence.