Fireproof Paints TRIZ Cases

See how a non-foamed aqueous coating with high-RI fillers and porous particles reduces sunlight

See how combining phenolic compounds with phosphorus-containing compounds achieves durable flam

See how a non-foamed aqueous coating with porous particles and high-refractive-index fillers re

See how a foam-forming insulation layer and integrated non-combustible adhesive confine flames

See how condensed metal phosphonates achieve high phosphorus content and low water absorption,

See how a waterborne resin composition with antimigrant polymer and ammonium polyphosphate infu

See how a solid organosilicate resin reduces viscosity and prevents plasticizer migration in lo

See how metal carboxylate and surface-treated silica enable uniform flame retardant dispersion

See how low-temperature curing and resin transfer molding integrate a porous ceramic thermal ba

See how a three-dimensional network organopolysiloxane resin with controlled alkenyl groups ach

See how a layered fire-extinguishing product uses low water vapor transmission substrates to pr

See how a non-foamed aqueous coating with porous particles, chlorinated binder, and white inorg

See how a condensate of phosphorous acid and aluminum hydrogen phosphite achieves high phosphor

See how a silicone-coated glass fibre membrane with inorganic flame retardant achieves GCV belo

See how a coated membrane balances flame retardancy with variable water vapor permeability acro

See how a fully inorganic ceramic coating eliminates organic burn-off contamination while achie

See how dual-image infrared capture and voltage-domain differential amplification isolate foreg

See how a calcium silicate mantel with fluoropolymer coating resists high temperatures from ven

See how a three-dimensional network silicone composition achieves 40 mm/min combustion rate at

See how crystalline aluminum phosphite synthesis raises thermal decomposition temperature and l

See how a matrical sorbent releases flame retardant at elevated temperatures above 300°C to sup

See how intumescent-coated fins seal ducts by char formation at low temperatures, eliminating c

See how polymer-shell microcapsules encapsulate volatile perfluorohexanone with high core-wall

See how chitosan and mineral fillers form a protective barrier to reduce flame propagation in w

See how controlled crystallization of aluminum phosphite raises thermal decomposition temperatu

See how a phosphonate-based fire coating eliminates halogen toxicity while reducing moisture-in

See how an inorganic fiber laminate with intumescent coating achieves fire resistance in thin p

See how a single fluoropolymer-silicone coating composition protects leather, vinyl, fabric, me

See how a multi-layer coating system with crosslinked polymers and flame-retardant fillers reso

See how a coated membrane balances flame retardancy with variable water vapor permeability by a

See how anti-settling agents and hydrophobic modifiers create uniform, thin microwave-absorbing

See how boric acid and borax replace nitrogen and halogen compounds to reduce flammability with

See how a silane-functionalized ethylene copolymer carrier prevents ammonium polyphosphate plat

Porous particles and a water-based binder boost yarn opacity and light scattering while reducing glare without solvent-based coatings.

See how a thermo-resistive coating with polymeric and nanostructure portions reduces thermal gr

See how large-platelet expanded graphite in foam coatings doubles burn protection time while ma

See how silica-shell encapsulation protects thermochromic semiconductors from reduction by hot

See how phosphorus-based flame retardants combined with nanoclay achieve V-0 rating while elimi

See how ultrasonic treatment bonds nanoclay with phosphinate and melamine to achieve V-0 flame

See how stable mechanically foamed polyurethane dispersion reduces flame retardant loading whil

Fiberglass and hollow glass spheres in silicone insulate substrates, radiate heat, and preserve adhesion under cold mechanical stress.

A nitrogen-containing resin coating forms a flame-retardant film on vehicle seats while reducing water spotting during steam treatment.

See how alternating cationic-anionic nanolayers with agitation break fiber bridges to provide f

See how a phosphorus-nitrogen intumescent flame retardant forms a protective foam layer to achi

See how embedded magnets replace mechanical ties to secure acoustic curtains instantly to metal

See how crosslinked bio-based polyphenol structures prevent leaching and bioaccumulation while

See how adding iron to diorganylphosphinic acid salts expands the processing temperature window

A phosphine oxide-rich polymer coating cuts formaldehyde release while preserving flame resistance and thermal protection after industrial washing.

Alternating cationic and anionic coating layers improve foam flame resistance through char formation while preserving flexibility and reducing toxicity.

Using ammonium sulfate and disodium hydrogen phosphate, this case shows fire protection without bromine or borax toxicity.

A coated fiber-mat slipsheet uses expandable graphite to deliver Class A roof fire protection in one lightweight layer, cutting installation effort.

Fiberglass or hollow glass spheres in silicone create a coating that insulates heat while preserving adhesion and toughness under cold mechanical stress.

A polymer substrate acts as the carbon donor, enabling thin transparent intumescent coatings with lower weight and simpler formulation.

Pulsed infrared radiation cures intumescent coatings faster while cutting energy use and preserving fire-resistant performance.

Two reactive polymer particle sizes improve functional-layer adhesion before and after electrolyte immersion while supporting heat resistance and ion conductivity.

A hydrophobic coating and controlled packaging keep potassium citrate fire suppressant at 5 mass% moisture or less under high humidity.

A single crosslinkable coating forms insulating char for fire protection while preserving clear appearance on cellulose-based substrates.

A silicone-coated busbar wrapped with glass fiber tape vents fire-generated gases to maintain insulation and prevent battery pack short circuits.

Staged electrical heating with potting, trickling, and curing improves motor winding insulation fill, cuts resin waste, and speeds curing.

A coated pouch-within-pouch cell releases flame-smothering gas above a threshold temperature to contain ignition and stop fire spread.

Ceramicizing silicone covering keeps battery pack bus bars insulated and supported at high temperatures while simplifying cap assembly.

A deoxidizer and co-solvent silver paste enables sub-200°C sintering with strong conductivity and adhesion without high pressure or reducing atmospheres.

Alkali silicate coatings hardened with inorganic fillers and hardeners improve humidity resistance, impact strength, and battery fire isolation.

A phase-change busbar composition absorbs latent heat and adds passive fire resistance, cutting pack complexity, cost, and assembly time.

A phase change busbar composition absorbs latent heat and adds fire suppression to lower cell temperature and resist thermal propagation.

An inorganic silicate coating with mineral fillers forms a ceramic barrier that limits battery heat transfer while maintaining adhesion and strength.

A dissolved conjugated polymer forms an electrically insulating thermal layer that improves heat transfer between components and helps manage thermal strain.

An elastomer potting mix with cooling fillers and electric field relaxers boosts dielectric strength, limits partial discharge, and improves HV device reliability.

Controlling IR peak ratio variation keeps separator particles uniformly distributed, improving battery rate characteristics and heat resistance.

A hydroxy-substituted particulate polymer functional layer improves wet adhesion while suppressing electrode metal deposition and battery swelling.

Rounded large aluminum particles raise silicone gap-filler thermal conductivity while lowering flammability, viscosity, and weight in Li-ion batteries.

Flame retardant coatings and gas-releasing precursors in nested pouch cells suppress ignition and help stop fire propagation between cells.

Fire-resistant cell coatings and partition walls suppress heat propagation in dense battery modules and protect bus bar assemblies during thermal events.

Two particulate polymers with different sizes and reactive monomer units improve functional-layer adhesion, heat resistance, and ion conductivity.

A sulfo-group water-soluble polymer and controlled-Tg particulate polymer improve separator blocking resistance, electrolyte injectability, and hot-cycle life.

An epoxy intumescent coating balances low-thickness application with durable char formation and adhesion under direct flame exposure.

A composite separator coating with binder, heat-resistant particles, and CMC extends the shutdown window while improving thermal stability.

An inorganic-aerogel insulation pad blocks heat transfer between battery cells while withstanding high temperatures to suppress thermal runaway.

A resin blend enables thinner high-voltage cable insulation and smaller outer diameter while preserving electrical, thermal, and flame-retardant performance.

A polyamide blend enables thin busbar coatings that keep UL94 V0 flame resistance, electrical insulation, flexibility, and aging durability.

Using rounded 20-150 μm aluminum particles, this silicone gap filler maintains heat conduction while cutting combustibility and processing viscosity.

A sprayable two-part epoxy coating replaces labor-intensive mica sheets while delivering fast curing and strong heat and fire protection.

A phosphate-organic insulating coating enables thin silicon steel laminations to bond strongly while preserving heat resistance, weldability, and low cost.

A low-smoke zero-halogen cable coating uses clay, melamine, and metal carbonate to stop flaming drips while preserving extrusion workability.

An expanding inorganic-coated fireproof cloth insulates battery cells from housing heat and flame while staying lightweight and replaceable.

Magnetic filler alignment in a resin composite creates heat paths through thickness while maintaining electrical insulation for battery modules.

Magnetic-field alignment of mixed fillers boosts through-thickness heat transfer while maintaining electrical insulation in battery module materials.

Silicone-based aerogel paint replaces toxic organic insulation with a porous coating that resists 1200°C flames for lithium battery module protection.

Carboxyl-group dispersants and controlled flame-retardant particle size improve aqueous battery coating uniformity, heat resistance, and electrode integrity.

Metakaolin helps intumescent polymer formulations keep V0 flame retardancy while improving melt stability and reducing steel equipment corrosion.

An inorganic silicate-and-filler coating on flame-resistant substrates blocks heat transfer between EV cells and forms a protective ceramic surface.

Layer-by-layer ionic coatings improve optical fiber cable flame retardance while preserving mechanical integrity and compact cable size.

A silicate-based battery cell coating conducts heat in normal use, then converts into an insulating fire barrier during thermal runaway.

A polyethylene resin blend helps multicore cable core wires resist abrasion and maintain bending durability in low-temperature vehicle routing.

A separator coating blends heat-resistant particles with shutdown agents to trigger earlier shutdown while preserving integrity and adhesion.

A low-smoke zero-halogen cable coating uses clay, melamine, and carbonate to stop flaming droplets while preserving extrusion workability.

An inorganic filler-binder coating with chopped fibers forms a thin ceramic barrier that resists heat and particle ejection in battery thermal runaway.

A mono-aluminum phosphate, boron carbide, and molybdenum coating forms a heat-treated layer that protects carbon composites and ceramics from oxidation.