A synthetic industrial diamond is a man-made superabrasive produced using HPHT or CVD methods, offering exceptional hardness for cutting, grinding, and polishing applications.

HPHT diamonds grow under extreme pressure and temperature; CVD diamonds form from carbon gases in a vacuum. HPHT is ideal for abrasives; CVD suits electronics and optics.

Synthetic diamonds have uniform size, shape, and lower cost, providing predictable performance compared to natural diamonds.

Saw Grit Diamond, Metal Bond Mesh Diamond, Resin Bond Diamond, Micron Diamond Powder, PCD and PDC Cutters.

Coarser grits cut faster; finer grits provide smoother finishes. Correct grit selection depends on tool type, material, and surface requirements.

Nickel, Titanium, or Copper coatings improve bonding, heat resistance, and tool life — especially in metal bond systems.

Used across construction, mining, metalworking, optics, and electronics for tools like saw blades, grinding wheels, and polishing pads.

Saw grit is coarse for cutting; micron powder is ultrafine for lapping and precision polishing.

They sinter multiple diamond crystals to create extremely durable cutting elements used in drilling and geological tools.

Price is influenced by quality, grit size, purity, and coating. HPHT is cost-effective; CVD and polycrystalline types are premium-grade.

Monocrystalline diamonds offer high sharpness; polycrystalline (PCD) diamonds provide toughness and wear resistance for heavy-duty applications.

Particle shape affects performance: blocky = long life, angular = moderate speed, irregular = aggressive cutting.

FEPA, ASTM, and ISO define coarse mesh and fine micron sizes to ensure consistent tool performance.

Diamond concentration is the volume of diamond in the tool. Higher concentration increases lifespan; lower improves cutting aggressiveness.

Excess heat may degrade diamonds. Thermally stable or coated diamonds can withstand higher temperatures for demanding applications.

Diamond is harder and ideal for non-ferrous materials. CBN is better for steel and iron-based materials.

By nitrogen content, inclusions, and crystal uniformity — critical for optical and semiconductor use.

Nickel (Ni) for heat resistance, Titanium (Ti) for bonding strength, Copper (Cu) for conductivity.

Coated diamonds form stronger matrix bonds, reducing diamond loss and improving tool durability.

Coated or TSP diamonds can endure up to 1000°C, preventing graphitization.

TSP diamonds resist high temperatures and are used in geological, wire drawing, and dressing tools.

They reduce wear, maintain sharp edges, and lower downtime, ensuring consistent cutting or polishing performance.

0.1 µm to 60 µm — smaller for polishing, larger for grinding.

Coarser grits sometimes can, but micron powders are typically single-use.

Composite diamond-carbide tools for oil, gas, and mining operations.

Micron powders produce mirror-finish surfaces in optical and semiconductor polishing.

HPHT is stronger and cheaper; CVD is purer and better for electronics and coatings.

Metal bond for heavy-duty, Resin bond for fine polishing, Vitrified bond for precision grinding.

Overheating, wrong grit size, or poor cooling. Proper selection increases lifespan.

SEM, XRD, particle analysis, and conductivity tests ensure consistency and reliability.

Used for precision lapping, polishing, and CMP in electronics, optics, and ceramics.

Provide high thermal conductivity, heat dissipation, and ultra-fine surface finishes for wafers and heat spreaders.

Eco-friendly, no mining, low carbon footprint, and sustainable production.

ISO 6106, FEPA 42-I-A, ASTM B748 define size and quality criteria.

Through precision grading, purity testing, and coating inspection for every batch.

Diamonds are 10–100× harder, cutting faster and lasting longer.

They reduce wear, energy use, and maintain surface precision.

Wet cutting improves cooling and tool life; dry cutting is possible with laser-welded blades and proper dust control.

Micron diamond powders in liquid carriers used for final polishing and superfinishing.

Uniform particle sizes ensure smooth finishes and even wear rates.

Nearly identical; synthetics offer superior uniformity, purity, and consistency for industrial applications.

Nano-diamonds, improved HPHT presses, advanced coatings, and TSP materials increase tool performance and reliability.

Enable sub-micron tolerances for optics, molds, and semiconductor components.

Diamond reacts with iron; CBN or coated diamonds are preferred for steel and cast iron.

Laser diffraction and automated size classification maintain uniformity for reliable performance.

High thermal conductivity diamonds dissipate heat in electronics, lasers, and high-power devices.

Used for wear-resistant parts, high-performance coatings, and sensors.

CVD-grown layers used as protective coatings and thermal interfaces.

Synthetic diamonds avoid mining, reduce carbon footprint, and enable controlled production.

We deliver high-quality HPHT and CVD diamonds, custom-engineered for grinding, drilling, and precision polishing — backed by strict R&D and quality control.