Radiation thermometers and independent spray valves tailor cooling time by mold zone, improving mold wash consistency and cast quality.
Multiple furnaces and a mixing runner system help sand-cast prototypes replicate high-pressure die-casting material properties.
A stud-and-chaplet spacer secures the core against the shell, controlling spacing and wall thickness in complex castings.
This additive package combines graphite, illite, and pre-gelatinised starch to preserve mold strength and reduce casting emissions.
An alumina matrix with a leachable second phase balances casting support strength with faster removal in aqueous hydroxide.
This case uses direct molding and post-molding sacrificial areas to shape metallic glass parts without damaging their integrity.
This core molding case uses molded-core density and detected piston position to offset density changes during injection.
Directly heating molten metal below the filter elements speeds preheating, improves temperature uniformity, and extends filter tube life.
Embedded pressure sensing evaluates green sand mold strength without interrupting production.
Single-stage reactive casting distributes tungsten carbide evenly, reducing wear and fragmentation in pump, filter, and compressor parts.
A shared reservoir and control valves serve multiple casting circuits, reducing space, maintenance, corrosion, and scaling.
A rotating casting cluster distributes molten metal through multiple gates, improving thin-wall filling and reducing material waste.
This case uses 9-1-1 titanium and vacuum die casting to reduce alpha case, avoid chemical etching, and enable thinner face plates.
PLA-based foam molds replace EPS to reduce carbon residue, improve surface finish, and support mold reusability.
An up-sprue, internal cover-mold passage, and down-sprue route trapped air out during filling for more consistent valve seat inserts.
This case combines refractory particles with chemical scavengers to bind formaldehyde as nonvolatile products during coating drying.