Plant Parameters Regulation TRIZ Cases

See how supercritical CO₂ replaces water coolant to eliminate phase-change thermal stress, simp

An energy storage buffer bridges reactor thermal lag, smoothing grid demand changes while the micro-reactor adjusts output.

Predictive neutron poison and water injection helps reactors follow power changes quickly while maintaining core stability and avoiding alarms.

Machine learning correlates reactor sensors to replace failed plasma measurements and keep fusion control stable despite neutron damage.

Machine learning updates plasma control from sensor correlations, sustaining fusion reactor performance as primary sensors degrade.

A simulated-plant-trained neural network adjusts pumps and valves to hold steam generator levels during degradation and transients.

A simulated plant-trained neural network sets reactor controls to maintain target responses during component degradation and transient events.

Adaptive sensor correlations let fusion plasma control continue after primary sensor degradation by inferring plasma state from secondary sensors.

Separate NTP and contact-signal synchronizers classify transient and consecutive clock errors to keep control system time stable.

Temperature- or pressure-triggered boron release replaces complex control rods to keep a reactor sub-critical during emergencies.

Centralized monitoring, planning, and automation let one team manage multiple reactors securely while cutting staffing and maintenance costs.

Real-time thermal power averaging and heat prediction automate steam turbine generator output control while preserving thermal margins and reducing manual adjustment.

Randomized actuator trajectories and value-based optimization help balance reactor safety, burnup, power density, and long-term operation.

Separate coolant paths and standby operation help a nuclear reactor maintain near-full power while supporting maintenance flexibility and resilient generation.

Two fluidly isolated cooling trains use natural circulation so the reactor can maintain near-full power when one train is offline.

Shielded detectors on the fuel loop measure neutron source strength outside the core to calculate reactor power, temperature, and flow velocity.

Physics-model-based controllers coordinate sensors and actuators, enabling facility-wide automation with minimal human intervention.

A brake system stops the heat engine at no load, while threshold-based heat transfer limits reactor temperature in compact installations.

This case sets reduced-power time limits and adapts protection thresholds to balance reactor maneuverability with fuel cladding integrity.

A pressurized water reactor control system adjusts the pressurizer water level setpoint based on predicted coolant volume changes.

A high-pressure feeding pump injects hydrogen gas into pressurized water reactor coolant lines, eliminating toxic wet chemistry and reducing startup time.

A modular liquid-metal reactor adjusts power output through a three-way valve that diverts steam flow between a turbine and feedwater heater.

Segmented heat exchangers with feedback loops adjust thermal energy delivery to match load demands while maintaining reactor stability.

A signal conversion system translates replacement self-powered neutron detector outputs into equivalent legacy formats.

Segmenting control rods into mobile and heavy sub-assemblies enables automatic regulation of primary coolant temperature and axial power distribution.

A nuclear cooling apparatus uses high-pressure steam to drive a piston that compresses and expands refrigerant for efficient cooling medium generation.