Furnace Types TRIZ Cases

A steel plate achieves high mid-thickness toughness through refined prior gamma grain size and martensite-bainite microstructure.

Segmented nozzle apertures pulse water into air streams to prevent accumulation and ensure uniform cooling rates across the steel surface.

A hot-rolled steel sheet combines polygonal ferrite and bainitic ferrite with fine composite carbides to achieve excellent roll-forming characteristics.

Heat-treated steel rail with optimized carbon and alloy content achieves high tensile strength through multi-pass rolling and accelerated cooling.

Controlled ferrite-pearlite structure in electric resistance welded steel pipes balances mold life and post-quench strength for automotive rack bars.

Two induction coil loops generate localized eddy currents to improve hardening pattern uniformity and reduce power requirements.

Atomizer creates controlled spray mist to cool metal workpieces, resolving uneven wetting and high water consumption in quenching.

Integrating die-forming and heat treatment into a single roll-forming line enables complex, hardened automotive components without stopping production.

Local quality and parameter changes create a soft heat-affected zone to prevent crack initiation at welded joints under mechanical loads.

An Si oxide coating on a ferritic stainless steel sheet prevents intergranular cracking and red scale formation in ammonia combustion exhaust gases.

Curved wedge-shaped slots in a cooling box direct coolant spirally around a steel workpiece to eliminate striping from non-uniform cooling.

Cold-rolled steel sheet balances strength and formability through precise phase control of bainite and austenite.

A steel material with controlled dislocation density and precipitate distribution.

Tempered martensite divides ferrite finely to resolve the trade-off between high bake hardening amount and excellent bendability after bake hardening.

A rolled wire rod with a mixed ferrite and pearlite structure enhances cold forgeability.

A hot-rolled steel sheet with mixed martensite and bainite phases provides high tensile strength.

Double cold reduction with rolling tension produces ferrite and banded cementite microstructures in tinned primary plates.

Gas nozzles jet fluid to tilt strip material above floaters, correcting small meandering amounts without surface damage.

Vacuum processing prevents decarburization during hot pressing, preserving toughness while achieving high tensile strength.

Synchronizing axial water injection with pipe immersion eliminates longitudinal strength differences caused by uneven cooling rates.

Tin addition stabilizes dual-phase microstructures in ferritic stainless steel, preventing ridging defects and eliminating polishing requirements.

Preliminary bending-unbending processing induces the Bauschinger effect to lower the yield ratio without post-weld heat treatment, maintaining high toughness.

Tempered martensite steel sheets achieve 1450 MPa tensile strength and hole expandability by controlling ferrite volume fractions and boron content.

Segmenting the annealing process into batch and continuous stages resolves magnetism deviation trade-offs while lowering energy consumption.

Nb and V compound precipitates trap hydrogen in high strength spring steel.

Controlled Ac1-Ac3 annealing reduces Lüders strain below 3% while maintaining tensile strength.

Spring steel wire achieves 2000 MPa tensile strength through controlled carbide distribution, preventing breakage during cold coiling processes.

Cold-working and low-temperature heat treatment control dislocation distribution to balance compressive and tensile yield strengths.

Hot-rolled steel sheet uses Ti precipitates smaller than 20 nm to achieve high tensile strength without expensive Nb or Mo additives.

A Cr-bearing heat-resistant steel sheet uses controlled hot-rolling to enhance workability.

Aluminum granules reduce chromite ore in a DC plasma arc furnace, eliminating carbon emissions and environmental impact from conventional reductants.

Tempered martensite and ferrite microstructures in a cold-rolled steel sheet maintain delayed fracture resistance against hydrogen embrittlement.

Local cooling prevents coarse bainite in ultra-thick steel surfaces, resolving strength versus toughness trade-offs.

Controlled ferrite and pearlite microstructures resolve strength versus machinability contradictions, ensuring uniform fracture faces for crankshaft assembly.

Full-length quenching transforms steel tube microstructure to tempered martensite, enhancing yield strength and impact toughness.

Segmenting the vacuum chamber via a movable partition reduces pressurization time and inert gas consumption while maintaining substrate throughput.

A high alloy composition with specific mass percentages of elements such as C, Si, Mn, P, S, Ni, Cr, Mo, Cu, Al, N, O, Ag, Ca, Mg, and rare earth metals.

Optimized nickel content and microstructure enable high yield stress and toughness at -253°C, reducing tank weight.

A wire heating system adjusts induction coil current based on feeding speed to maintain target temperature.

Spheroidal graphite cast iron achieves uniform microstructure through precise copper and zirconium ratio control.

Electrodepositing precursor copper followed by heat treatment to induce grain growth and increase special low Sigma grain boundary fractions.

Quenching and tempering seamless pipes with controlled parameters suppresses decarburization to resolve inner surface hardening limitations.

A tempering station uses tangential nozzles to create aerodynamic seals for precise metal component cooling.

Nb-V precipitation strengthens ferrite in age-hardening steel, resolving the fatigue strength versus cold forgeability trade-off.

Precise Zn, Mg, Cu ranges and recrystallized microstructures reduce fatigue crack growth rates while minimizing crack deviation in thick rolled aluminum alloys.

Controlling cementite aspect ratio suppresses microvoid formation, preventing wire breakage during processing.

A stainless steel composition with rare earth metals and controlled alloying elements enhances corrosion resistance in oil well tubes.

A grain-oriented electrical steel sheet manufacturing method optimizes rough rolling and annealing temperatures to establish a precise primary recrystallized texture.