Volume/Mass Flow Measurement TRIZ Cases

A staged PCB power-on sequence lets a PLD finish configuration before enabling other electronics, avoiding timing and electrical mismatches.

A split base-and-offset counter uses secure internal memory and external NVM to extend count range while resisting replay attacks and power loss.

An underdamped second-order circuit lets one GPIO identify board versions and set the correct power-up sequence without extra pins.

Feedback-controlled current adjustment cuts leakage while speeding core power-state detection in multi-supply voltage circuits.

Selectable switch modules route either cable-end voltage to the ID circuit, avoiding diode drop while protecting both power sources.

A reset unit stops the second regulator output and blocks current flow, avoiding large cutoff transistors to save space and power.

A staged power-up circuit aligns multiple supply voltages before initialization to prevent latch-up and startup errors in semiconductor devices.

An IGZO transistor and capacitor preserve flip-flop data in sleep mode without always-on power, reducing leakage and improving power gating.

A latched flip-flop reset signal lets the CPU trigger factory reset without CPLD hardware, cutting circuit complexity and cost.

Idle data, address, and clock buffers are switched to sleep mode to cut IC power use during read, write, and refresh operations.

Selective pull-down current on the USB-C CC line prevents charge-up during long transitions while cutting controller power use.

Feedback-controlled detector current cuts leakage in multi-voltage ICs while speeding core power-up and power-down detection.

Programmable header sharing lets slower IC partitions borrow adjacent power paths, cutting voltage drop and raising die frequency.

Staggered clock edges spread sensor-array switching current over time, reducing power noise and improving low-level chemical detection accuracy.

A low-power sensor core monitors barometer changes continuously, waking the main processor only for floor disambiguation to save battery.

Gate charge is routed between the power-gate transistor and logic supply rail to cut switching energy and make short idle power gating practical.

Distinct delay elements emulate gates and wires to track critical path delay, enabling lower IC supply voltage without timing failure.

A staged power-up signal circuit waits for multiple supply voltages to stabilize, preventing latch-up, leakage, and faulty initialization.

A voltage-sensing disable module powers off analog circuits at a safe threshold to cut low-power current without transistor damage or added latency.

Coordinated power ramping between IC modules suppresses transient signals, cuts power use, and removes the need for isolation cells.

Using a higher-voltage clock path and Vmin data path cuts clock-to-output delay and setup time without raising processor power.

A center-tapped inductor and common-voltage bias cut parasitic capacitance, noise sensitivity, jitter, and current in high-speed clock lines.

A level-shifting test path lets a power detector read core and pad voltage states even when one domain is unpowered, cutting leakage and power use.

Software in a secure MCU area checks digitized supply voltages against tolerance ranges, reducing hardware complexity while preserving diagnostic reliability.

Modified memory cells form a ring oscillator that reveals SRAM speed, enabling adaptive voltage scaling for better yield and density.