Energy Input TRIZ Cases

See how superheated steam melts and atomizes aluminium to bypass the oxide layer, enabling effi

See how melting and atomizing aluminium with superheated steam removes the protective oxide lay

Stress-cycled shape memory alloy modules recover latent heat between cycles to raise solid-state cooling power and efficiency.

Separating reforming from membrane hydrogen removal and reusing retentate heat cuts energy loss while delivering high-purity fuel-cell hydrogen.

Pyrolysis, electrolysis, and a direct carbon fuel cell are integrated to make aluminum, hydrogen, power, and sequestration-ready CO2.

Ultrasonication and hydrothermal growth produce monodisperse octahedral BiVO4 with better charge separation and stable water oxidation.

An inert gas loop evaporates ammonia, recovers reactor heat, and improves safe, commercial-scale hydrogen output with lower energy loss.

Ultrasonication and hydrothermal treatment shape tetragonal octahedral BiVO4 particles to raise photocurrent in visible-light water splitting.

Steam-assisted ammonia vaporization bridges low-temperature start-up until effluent gas heat recovery can sustain efficient hydrogen production.

Injecting a cooling medium into vaporized ammonia limits overheating and steel nitridation during hydrogen production from ammonia.

Hot flue gas preheats and vaporizes ammonia feed to cut waste heat loss, reduce ammonia consumption, and improve hydrogen production efficiency.

Embedding ZnO nanocrystals into a TiO2(B) lattice improves charge separation, conductivity, and cycle stability for hydrogen production.

Repeated current loading and low-potential holding accelerate anode durability testing while preserving renewable power fluctuation realism.

Low-density, fibrous feedstock can create dust and poor conversion; staged pyrolysis and stationary-bed gasification produce energy-rich syngas.

Steam condensation supplies latent heat to the endothermic ammonia cracker, improving temperature uniformity and conversion without high inlet temperatures.

Electrodeposition and freeze-drying create a porous NiFeCuCoMoPt foam that raises catalyst loading while reducing Pt use and preparation complexity.

This case uses microwave coupling and oxidation-product separation to reduce materials at low temperature without re-oxidation.

Freeze concentration reduces urine volume while retaining nitrogen for fertilizer recovery.

This case shows how adsorbed graphene quantum dots remove excess V2O5 while protecting BiVO4 and supporting stable oxygen evolution.

Iron-aluminate spinel materials use controlled oxygen partial pressure at fixed temperature to split water and CO2 for hydrogen production.

Closed fluidized bed coating machine recovers thermal energy from exhaust air to reduce consumption while preventing spray gun blockage.

Wet mixing of zirconium carbonate with phosphate ions followed by dry calcination yields high crystallinity without grinding.

Accumulating inert gases in the ammonia synthesis loop dilutes reactants to moderate reaction heat during partial load operation.

Dynamic feed rate control based on British thermal units maintains combustion temperature, converting animal waste into electricity and heat.

Surfactant-modified aqueous USP deposition eliminates annealing, improving multilayer cycling reversibility and coloration contrast.

An optimization model generates dynamic control strategies for industrial plants to balance carbon intensity limits with system flexibility and market demand.

A silicon carbide-loaded graphene photocatalyst forms a heterojunction interface to boost hydrogen production under visible light irradiation.

Ammonium beryllium fluoride eliminates hazardous handling of beryllium fluoride and incomplete conversion during molten phase synthesis.

Segmented gas cooler sections produce superheated steam at varying pressures, preventing equipment damage from high-pressure saturated steam.

Segmented gasification and oxidation stages maximize thermal yielding while reducing pollutant emissions in electricity generation.

Warming water via light source waste heat accelerates reaction kinetics, enabling compact system design without efficiency loss.

Nanostructured bismuth oxide electrode facilitates selective oxygen reduction, eliminating toxic solvents and high energy consumption in industrial production.

An ammonia-based energy carrier system produces hydrogen via photochemical decomposition of nitric acid intermediates.

Low-temperature sol-gel synthesis preserves nanostar morphology while expanding TiO2 activity beyond ultraviolet light.

A metal chalcogenide catalyst composition incorporating electrolyte and amphiphile materials to enhance hydrogen coverage at active sites.

Advancing steam injection timing in carbonization chambers increases coke-oven gas volume through extended water-gas reactions.

Continuous evaporation recovers unreacted monomers while thermal decomposition removes initiators, eliminating costly repeated distillation steps.

Optimized porous coatings reduce temperature differences required for boiling, lowering energy consumption in cryogenic heat exchangers.

Electrical heaters preheat combustion air using renewable energy, reducing fuel firing and CO2 emissions while preventing sulfuric acid corrosion.

Segmented catalyst beds maintain reaction temperature below 520°C, preserving catalyst activity and increasing ammonia concentration.

Segmenting cooling into a fluidized bed and shell-and-tube exchanger reduces thermal stress on tubes while lowering energy consumption.

Ammonia synthesis method uses solar thermal energy and reaction heat to drive water splitting for hydrogen production.

Periodic polarity inversion corrects surface polarization errors, enhancing fission product generation from low-temperature waste heat.

A powder fuel supply apparatus uses differential pressure across branch tube nozzles to determine char flow velocity.

Baffle plate portion extends high temperature gas residence time in a suspended combustion power steam generator.

A high pressure water heat transfer system circulates supercritical fluid through dual exchangers to manage thermal loads in continuous carbonaceous conversion.

Sharing a vacuum tower with straight run residue prevents fouling, eliminating shutdowns for cleaning.

Replaces direct plasma heating with internal inductive eddy currents to reduce electricity consumption and emissions while producing syngas.

Reducing ferric iron to ferrous form enables selective precipitation, eliminating contamination and maximizing alumina purity.

A thermal treatment system recycles carbon dioxide gas to supply heat for processing dry raw materials.

Programmed heating and supersonic quenching control transient states to increase hydrogen and ammonia yield, reducing energy consumption and carbon emissions.

A ceramic composite disperses fine particles in a porous insulator to enhance hydrogen generation efficiency.

Autothermal reformer processes hydrocarbons with oxygen-enriched air to produce additional synthesis gas, bypassing primary reformer flow rate limits.