Every batch of carbide-steel composite is sintered above 1400°C and verified by multi-zone hardness mapping to guarantee uniform wear resistance.
Our ovens reach 1400°C under vacuum, eliminating porosity in carbide-steel composites. This yields a dense microstructure that extends tool life by up to 40% in abrasive mining environments.
Every batch undergoes micro-indentation mapping across 12+ zones. You receive a detailed hardness profile, proving uniform wear resistance before the material reaches your floor.
We tailor carbide distribution and grain size for your specific thermal load. The result: alloys that retain hardness above 800°C, suitable for aerospace turbine blades and extrusion dies.
Programmed furnace cooling prevents stress cracking in complex geometries. This reduces scrap rates by 25% compared to conventional quench methods, saving both time and material cost.
Each melt is logged with furnace temperature curves, vacuum levels, and hardness data. Full traceability ensures compliance with ISO 9001 and customer audit requirements.
One hardness map can confirm wear resistance before production tooling is cut.
High-temperature vacuum sintering of carbide-steel composite blanks in ovens rated above 1400°C. Includes post-sinter hardness mapping across three zones to verify uniform wear resistance. Suitable for mining and drilling tooling.
Custom alloy formulations melted under controlled vacuum conditions. Precise carbide distribution and grain size control for oxidation resistance at elevated temperatures. Ideal for aerospace turbine components and high-speed cutting tools.
Controlled deposition of wear-resistant coatings followed by micro-indentation hardness mapping. Detailed surface hardness profile data provided for each coated area. Designed for hydraulic components, valve seats, and pump impellers.
Standalone hardness mapping service using micro-indentation techniques across multiple zones. Delivers a certified hardness profile with statistical variance analysis. Can be applied to customer-supplied samples or existing production batches.
Each package includes a detailed process report with furnace parameters and hardness data. Contact our metallurgical team to discuss your specific alloy requirements.
Straightforward answers about our sintering, vacuum induction furnaces, and hardness mapping processes.
Our high-temperature sintering ovens operate above 1400°C under controlled atmosphere to ensure dense, void-free carbide-steel composites. Each cycle is monitored with thermocouples placed at multiple zones inside the chamber.
We perform hardness mapping using micro-indentation on every production blank. A grid of indentations is measured across the surface and cross-section, and the data is compiled into a zone-by-zone report that accompanies each shipment.
Yes. We formulate custom carbide-steel and nickel-based alloys tailored to your thermal and wear requirements. The melt is processed in our vacuum induction furnaces to control gas content and carbide distribution precisely.
Mining, oil and gas drilling, metalforming, and heavy construction equipment rely on our sintered blanks for tooling that must withstand high impact and abrasive wear. We also supply to manufacturers of extrusion dies and cutting tools.
Absolutely. For wear-resistant coatings, we map hardness using micro-indentation before and after deposition. The resulting profile shows surface hardness variations across the coated area, helping you predict localized wear behavior.