Solar Heating Energy TRIZ Cases

See how reinforcement frames and segmented modification steps enable aesthetic openings in ship

See how segmented insulating panels enable large-capacity thermal storage tanks to pass through

See how an eccentric handle and bracket enable mechanical angle adjustment of ground-mounted so

See how embedded parabolic microstructures redirect solar radiation by angle, reducing summer o

See how pressurized pipes heat water above boiling point in a closed solar loop, eliminating tw

See how selective infrared heating of the glass-metal seal area preserves tempered glass pre-st

See how a movable washing apparatus cleans solar panels at any angle without guide rails or ope

See how a segmented carbon-polymer heater pad with four parallel rails enables low-voltage sola

See how pivotable facade panels with adjustable air gaps enable dynamic insulation and solar ga

See how mechanical bending of flat glass mirrors with adhesive bonding eliminates hot-bending c

See how a modular solar collector uses the heat transfer fluid itself to trap thermal radiation

See how predictive control optimizes steam flow across distributed solar receivers to reduce tw

Encapsulated heat storage containers decouple storage from transport, enabling automated, efficient transfer of small heat quantities.

A rolled reflector with 0.02-1.0 µm Ra and 80°-100° orientation improves solar light condensing onto the heat collecting tube.

Lens arrays and microstructured light guides concentrate sunlight onto small solar cells, cutting collector area and power generation cost without sun tracking.

Multilayer UV and VIS/IR reflector films replace heavy glass mirrors in CSP, delivering broad-spectrum reflectivity with lower weight and fragility.

A sliding protective envelope and thermal insulation shield the solar receiver bearing structure from solar flux, reducing deformation and extending life.

An integrated riveted fastener and lock nut simplify solar module mounting while resisting shock- and vibration-induced loosening.

A corrugated hose and compensator link fixed lines to solar absorber pipes without torque, preserving collector pivoting at high temperature and pressure.

Multiple storage tanks and flow splitting cut heat-transfer temperature gaps, improving thermoelectric storage round-trip efficiency.

A one-piece polymer heat exchanger enables direct pressurized solar water heating while resisting freezing, corrosion, leaks, and deposits.

A heat-released wind deflector shifts from cooling airflow to restricted venting, limiting flame and hot gas spread under rooftop PV arrays.

Offset hinge planes and protrusions let connected 3D bodies fold compactly without panel interference, improving storage and transport.

A servo-driven wiper arm clears snow and ice from solar collectors to restore energy capture while avoiding costly year-round cleaning systems.

A bitumen or plastic joining surface creates a reliable detachable mount for photovoltaic components across concrete and rough wood roofs.

Autonomous onboard sensing replaces manual sun sensor alignment, improving heliostat calibration accuracy, inspection speed, and installation flexibility.

A low-head pump and mixing loop around a separating heat exchanger lowers return temperature and improves heating or cooling distribution efficiency.

Pre-set spacers and a receiver keep the light transmitter intake at the correct distance from the concentrator to minimize skylight losses.

A controller divides heliostats into subgroups to balance receiver flux, meet power demand, and limit unnecessary mirror movement.

Flattened metal pipes sandwiched in modular roof panels improve heat conduction while preserving roof appearance, strength, and insulation.

Dual barrier layers improve adhesion and block diffusion, helping solar absorber coatings keep high absorption and low emissivity at 400°C.

Pyroelectric sensors, Fresnel lenses, and stepper motors keep solar modules aligned to the sun, reducing angle-of-incidence losses.

Cup-shaped float elements use buoyancy and an evaporation-condensation cycle to cool water, limit evaporation, and deter bird access.

A clip-on mounting plate and adjustable solar brackets enable fast attic vent fan retrofit without enlarging the roof vent aperture.

PVD inorganic coating layers replace wet chemical silvering to deliver solar mirrors with high reflectivity, corrosion resistance, and thermal durability.

Elevated air and water temperatures enable evaporative data center cooling with water reuse, cutting chiller power and municipal water demand.

Two thermal stations store and exchange heat bidirectionally to balance residential and industrial loads while cutting transport losses.

Separate hot-water and floor-heating tanks with dedicated refrigeration circuits cut thermal waste and avoid dissipators in hydronic heating.

A camera and shielded thermopile automate heliostat reflectivity measurement, reducing user bias and improving solar flux assessment.

Retroreflective elements send visible sunlight back toward the sun, cutting indirect terrain heating and lowering building cooling loads.

A monocentric primary lens with segmented secondary optics enables gigapixel imaging in a smaller footprint while simplifying alignment and cost.

Spectrally split concentrated sunlight feeds PV cells tuned to different wavelengths, boosting power output while reducing PV cell area and heat.

A rocker-bar cleaning assembly combines sweeping, wiping, and scraping to clean solar panels using rain assist without external fluids.

A narrowed frame notch draws liquid off the solar module surface, reducing dirt buildup and output loss in inclined arrays.

A Cr-containing oxide film on ferritic steel boosts solar absorptivity while limiting infrared radiativity and improving oxidation resistance.

Concentrated solar beams are formed and steered from podded concentrators to a central receiver, cutting optical and heat losses while enabling thermal storage.

A reversible multilayer window coating reflects infrared in summer and absorbs it in winter while maintaining visible light transmission.

Pressurized liquid water stays stable above 100°C in solar collectors, avoiding two-phase flow while improving heat transfer and safety.

A sky-facing radiative panel cools incoming ventilation air and also supports solar heating, helping buildings control air temperature with less energy.

A gas-pressurized single chamber and tension elements shape reflector sections to concentrate solar radiation with less material and simpler support.