Energy Efficient ICT TRIZ Cases

See how a thermostat harvests power during HVAC on and off cycles to recharge an internal batte

See how a wireless gateway system enables service devices to self-report conditions, determine

See how wire insertion sensing circuits and automated testing sequences identify HVAC connectio

See how a thermostat harvests HVAC wire power and switches processor modes to enable cloud comm

See how a portable operating apparatus enables manual mode switching between at-home and not-at

See how wirelessly networked sensing microsystems apportion shared HVAC computational tasks bas

See how allocating server tasks by CRAC thermal proximity and efficiency curves reduces cooling

Turns device-level energy data into household rules and actionable control instructions, making smart-home energy use easier to manage.

Real-time energy data and pricing feedback guide component operation ranges to cut waste and improve network energy distribution.

Transforms cryptic household energy data into appliance-level comparisons and usage adjustments that align with energy rules and policies.

Raw device energy data is converted into profile-based guidance, helping households adjust usage and stay within energy policy limits.

A moveable wiring terminal harvests thermostat power without a common wire, while isolating Rc and Rh for flexible, reliable HVAC sourcing.

A rotating ring and central display simplify thermostat programming, helping users access HVAC scheduling and energy-saving controls.

Isolation and solid-state switching let one thermostat work with single or dual HVAC transformers without jumpers, relay noise, or rewiring.

Foam-saturated liquid desiccant trays recover water from air with lower energy use while simplifying high-surface-area dehumidification.

By combining VR control, fan control, and calibrated temperature sensing in one IC, this case cuts PCB space and reduces noise-related errors.

Allocating processing tasks by CRAC efficiency and server location spreads heat loads, cutting cooling power use and shutdown risk.

An open appliance network replaces hard-wired links with protocol-based communication to add remote interfaces and expandable functions.

Dynamic TEC target temperature tracks casing heat using NTC and PTC thermistors to cut cooling power without sharply raising chip failure rate.

Periodic polling lets a network controller learn RFD wake times, cut traffic, preserve battery life, and detect removals or faults.

Dual-mode thermostat control enables HVAC preconditioning without a C wire by shifting high-power tasks to available power periods.

Long-polling cloud communication lets a wireless thermostat stay responsive while harvesting HVAC wire power and extending battery life without a common wire.

Plenum pressure feedback switches fans and adjusts a bypass damper to cut energy use while preventing standby fan wear in exhaust systems.

Power and temperature sensing adjust PWM fan speed to prevent overheating while cutting cooling energy use and fan noise.

Foam-wicked desiccant trays expand air-contact area to recover water from ambient air with lower complexity, energy use, and maintenance.

Long-polling cloud communication and harvested HVAC power let a wireless thermostat stay responsive without a common wire.

Foam-supported liquid desiccant and sensor control boost ambient water recovery while preventing crystallization and cutting energy use.

Foam-filled stackable desiccant trays increase vapor capture without misting, enabling modular ambient water recovery with lower complexity and energy use.

Configurable manifolds redirect airflow through desiccant trays to improve ambient water recovery while limiting fan energy and system complexity.

Porous foam trays hold liquid desiccant to capture air moisture, then use heat and condensation to recover potable water with low energy use.

Dynamic airflow and desiccant cycling recover potable water from ambient air with lower energy use and adaptable operation.

Foam-wicked liquid desiccant in stacked trays boosts air-water capture while simplifying ambient water recovery and dehumidification.

Liquid desiccant trays and foam media recover water from air while a controller switches power and heat sources to cut remote operating cost.

Porous foam trays spread liquid desiccant for efficient atmospheric water capture and dehumidification without complex misting hardware.

Porous foam wicks liquid desiccant to boost air-contact area, enabling compact ambient water recovery with lower complexity and energy use.

Reconfigurable desiccant trays and airflow paths boost ambient water capture while cutting energy use and maintenance.

Real-time metering and appliance control coordinate home and utility networks to curb peak-hour consumption and improve energy efficiency.

Real-time air and component temperature thresholds adjust coolant flow split and rate to cut data center overcooling and power use.