Lining Supports TRIZ Cases

A heat shield covers the substrate support when wafers are absent, cutting unnecessary heating, cooldown delay, and airflow distortion.

Fewer dual-fin anchors form hexagonal refractory patterns faster while an insulating gap reduces heat transfer to the mounting pin.

Two V-shaped anchor fins form hexagonal lining with fewer installations while the insulating gap cuts heat transfer and crack risk.

Y-shaped anchor fins cut anchor count and installation time while limiting heat transfer, vibration damage, and refractory liner cracking.

A folded Y-shaped anchor replaces rolled hex sheets, enabling single-weld refractory installation on curved surfaces with uniform support.

Asymmetric anchor fins improve refractory liner anchoring at corners and edges while preserving stud-welding compatibility and reducing heat transfer.

A density-graded inorganic fiber sleeve strengthens the skid pipe outer surface while preserving inner cushioning and heat insulation.

A snap-fit eye-mount lets a V-anchor stay secure during installation, then float slightly under heat to reduce refractory lining cracks.

Off-site precast rings and on-site vibrated dry material create a seamless furnace lining with higher strength, less leakage, and shorter downtime.

An open cut-out and segmented anchor body support thick refractory liners while limiting deformation, cavities, and heat transfer.

Segmented copper shelves transfer upper tier weight to the containment shell, preventing sudden collapse and allowing controlled wear in lower furnace walls.

An adjustable clip compensates for thermal deformation in high temperature furnaces by shifting vertical height without disassembly.

Insulating layers between rows prevent hot spots and uneven consumption, enabling parallel processing without increasing the furnace footprint.

A plastic cap encases a U-shaped reinforcement anchor to secure the connection during construction.

Bending anchoring arms to an acute angle prevents air chambers during lining application, ensuring complete gap filling and robust attachment.

A dual-layer ceramic body combines an open-pored base with a dense front layer to shield furnace interiors from corrosive environments.

Phase-changing fasteners melt during furnace operation to compensate for thermal expansion, eliminating stress on ceramic anchor bricks.

A peg-and-recess connection mechanism secures refractory wall elements within an industrial furnace lining system.

A modular industrial furnace system uses standardized interfaces to assemble dimensionally stable heating and insulation modules into custom geometries.

A plate-shaped molded brick uses a downwardly open groove to receive retaining pins and mortar, creating a stable vertical base.

A monolithic refractory anchor uses a single weld to attach securely to metal substrates.

Cantilevered copper shelves transfer refractory wall load to steel shells, relieving lower bricks from stress and preventing sudden collapse.

Gravity moves refractory bricks into holohedral contact with a heat-conducting layer, maintaining thermal transfer despite expansion.

Rotating the reversible jamb block protects worn surfaces from impact damage, reducing replacement frequency for high-temperature furnace door frames.

Modular furnace wall combines ceramic fiber modules with aluminum castable to improve radiation efficiency while reducing wall thickness and energy consumption.

A furnace holding device uses a decreasing gap receptacle to secure ceramic anchor bricks via gravity.

Curved column arms provide alternate structural paths that reduce internal stresses and allow lower cost materials.

A single steel collar consolidates coolant piping to eliminate multiple weld leaks while managing thermal expansion stresses in furnace containment shells.

Segmented refractory lifters replace worn head blocks without dismantling the kiln lining, reducing downtime and material costs.

Sensors monitor binding forces to trigger automatic hydraulic adjustments, eliminating manual maintenance in hazardous furnace environments.

Segmented refractory anchors distribute thermal stress to extend furnace lifespan while maintaining insulation properties.

Spacer bead design prevents ash cavities during concrete casting, reducing maintenance costs and improving heat exchanger reliability.

Tile spacers ensure precise alignment of ceramic refractory tiles on incinerator tube walls during assembly.

A furnace wall uses a refractory connecting piece to decouple the bearing device from the holding element.

Elongated anchor plates feature semi-circular recesses and expansion slots to secure refractory liners on vessel walls.

A refractory anchor assembly uses electrical resistance welding to secure base pins to vessel walls.

A wear-resistant gap-filler insert anchors between cooling plates to seal gaps, preventing uneven erosion of the backfilling concrete.

Curved refractory bricks lock into copper stave coolers to eliminate gaps that cause thermal non-uniformity and reduce furnace life.

Groove-based clamping secures refractory bricks without metallic anchors, preventing hot gas damage and simplifying furnace wall maintenance.

A furnace stave uses internal cooling channels in protrusions to form protective slag layers on refractory bricks.

A refractory lining fastening device uses an eccentric fixing element to hold the anchor within a large eye, allowing radial mobility.

Spring-loaded cooler rings maintain inward pressure on expanding refractory bricks, preventing gaps and eliminating expensive containment shells.

A single-piece steel anchor with bent legs forms an eyelet that hardens refractory material within its structure.

An unobstructed upwardly extending gap vents hot air to reduce outer casing temperatures, preventing warping and leaks without complex blower systems.

Adjustable anchoring in precast blocks ensures precise alignment, reducing repair time and extending service life against thermal stress.

Slot and pin centering structures align vertical furnace annular flanges, eliminating manual adjustment errors.