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5mm thick walls with thermal shock-resistant composition Mill Ceramic Jar

5mm thick walls with thermal shock-resistant composition Mill Ceramic Jar

    Grinding Ball Weight:1kg Grinding Modes:Dry/Wet Rotation Speed Ratio:2/3 Feeding Granularity:<=1mm Maximum Loading Capacity:2/3 Capacity Of The Grinding Jar Grinding Jar Volume:500ml Thickness:5mm Uses:Temperature-sensitive Protein Milling Design:Integrated Vacuum Ports
Anti Wear Milling Tungsten Carbide Grinding Media 1mm-20mm OEM

Anti Wear Milling Tungsten Carbide Grinding Media 1mm-20mm OEM

    For maximum lifespan: Use in WC-lined mills to prevent contamination. For wet grinding: Compatible with water, alcohol, and most solvents. Alternative for cost-sensitive applications: Zirconia (Y-TZP) or Si₃N₄ if hardness is sufficient.
MSDS Tungsten Carbide Grinding Media Sphere Beads 10mm In Bulk

MSDS Tungsten Carbide Grinding Media Sphere Beads 10mm In Bulk

    ✔ Excellent Chemical & Corrosion Resistance Inert to most acids, alkalis, and solvents (except strong oxidizing acids like HNO₃). No rust or oxidation – Unlike steel, suitable for wet grinding in corrosive environments. ✔ High Fracture Toughness (Better Than Alumina & Si₃N₄) Toughness (KIC): 8–12 MPa·m¹/² (better than alumina and silicon nitride). Resists chipping/cracking under high-impact milling conditions. ✔ Temperature Stability Withstands high temperatures (up to 500–600°C without degradation).
Precision Cemented Tungsten Carbide Grinding Media Balls WC-Co Cobalt Bonded

Precision Cemented Tungsten Carbide Grinding Media Balls WC-Co Cobalt Bonded

    Extreme Hardness & Wear Resistance Hardness (HV): 1,800–2,200 (among the hardest grinding media available). Superior abrasion resistance – 10–20x longer lifespan than steel balls in abrasive environments. Minimal material loss – Ideal for high-precision grinding (e.g., ceramics, hard metals). ✔ High Density for Efficient Grinding Density: 14.0–15.0 g/cm³ (much heavier than steel, ceramic, or Si₃N₄). Higher kinetic energy – Improves grinding efficiency for hard, brittle materials.
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5mm thick walls with thermal shock-resistant composition Mill Ceramic Jar

5mm thick walls with thermal shock-resistant composition Mill Ceramic Jar

    Grinding Ball Weight:1kg Grinding Modes:Dry/Wet Rotation Speed Ratio:2/3 Feeding Granularity:<=1mm Maximum Loading Capacity:2/3 Capacity Of The Grinding Jar Grinding Jar Volume:500ml Thickness:5mm Uses:Temperature-sensitive Protein Milling Design:Integrated Vacuum Ports
99.95% purity Ultra High Purity 3Y-TZP Jar for Nanotechnology

99.95% purity Ultra High Purity 3Y-TZP Jar for Nanotechnology

    Grinding Ball Diameter:3mm, 5mm, 8mm, 10mm, 15mm Grinding Ball Size:10 mm Material:3 Mol% Yttria-stabilized Zirconia Grinding Modes:Dry/Wet Rotation Speed Ratio:2/3 Grinding Balls Material:Zirconia Customization Options:Beneficial For Specialized Applications Maximum Output Size:0.1μm Warranty:1 Year Hardness (HV):1,200–1,400
Extreme Environment Advanced Ceramic Grinding Jar 1500°C Capable

Extreme Environment Advanced Ceramic Grinding Jar 1500°C Capable

    Application:Grinding And Mixing Safety Features:Overload Protection Grinding Ball Size:10mm Vickers Hardness:1200–1400 HV Feature:High Hardness And Strength Material:3 Mol% Yttria-stabilized Zirconia Extreme Environment:1500°C Capable
Eco-Friendly 95% Material Recovery Rate Recyclable Zirconia Ceramic Grinding Jar

Eco-Friendly 95% Material Recovery Rate Recyclable Zirconia Ceramic Grinding Jar

    Compatibility:Milling Equipment In Use Capacity:2L Purity:>99.9% ZrO₂ Density:6.05 G/cm³ Warranty:1 Year Rotation Speed Ratio:2/3 Grinding Ball Size:10 mm Grinding Ball Diameter:10 Mm Fracture Toughness:6–10 MPa√m Max Feeding Capacity:2/3 Capacity Of The Grinding Jar Feature:High Hardness And Strength Materials:3 Mol% Yttria-stabilized Zirconia
Solder Copper Phosphorus Metal Braze Paste 10g 500-800°C OEM

Solder Copper Phosphorus Metal Braze Paste 10g 500-800°C OEM

    ✔ Composition & Melting Behavior Alloy Types: CuP6 (Cu-6%P): Melting range 710–890°C (higher flow temp). CuP8 (Cu-8%P): Melting range 710–800°C (most common). CuP8+Ag (Cu-7.5%P-0.2%Ag): Improved ductility & strength. Self-Fluxing: Phosphorus (P) removes oxides, eliminating need for separate flux (for copper-to-copper joints). ✔ Mechanical & Joint Properties Shear Strength: 150–220 MPa (depends on base metal and joint clearance). Electrical Conductivity: ~15–20% IACS (lower than pure copper due to P content). Corrosion Resistance: Excellent in water, refrigerants, and mild chemicals. ✔ Wetting & Flow Characteristics Excellent wetting on copper/brass/bronze (forms smooth fillets). Controlled viscosity (paste form) for precise application. Capillary action: Works best with 0.05–0.2 mm joint gaps. ✔ Thermal & Chemical Stability Service Temperature: Up to 200–250°C (avoid high-stress, high-temp environments). Not for ferrous metals (steel, cast iron): Forms brittle Fe₃P phosphides.
Powder Metallurgy Sintering Braze Powder Joining Metal Components Customized

Powder Metallurgy Sintering Braze Powder Joining Metal Components Customized

    Composition & Alloy Types Copper-Based (Cu, Cu-P, Cu-Sn, Cu-Ni): CuP6/CuP8 (Self-fluxing): For copper/brass PM parts. Cu-Sn (Bronze): Improves strength & wear resistance. Iron & Steel-Based (Fe-Cu, Fe-Ni, Fe-Mn): Fe-Cu (Common for structural parts): Enhances densification. Fe-Ni (High-strength applications): Improves toughness. Nickel-Based (Ni-Cr-B-Si, Ni-P): High-temperature brazing (e.g., turbine components). ✔ Melting & Sintering Behavior Liquid-Phase Sintering (LPS): Forms a transient liquid phase at 800–1200°C, filling pores & improving density. Solid-State Diffusion Bonding: Some alloys (Fe-Cu) rely on solid-state diffusion for bonding. ✔ Mechanical & Physical Properties Density Improvement: Reduces porosity by 5–15% vs. conventional sintering. Tensile Strength: Can increase by 20–50% depending on alloy & sintering conditions. Hardness & Wear Resistance: Enhanced by Ni or carbide additions. ✔ Wetting & Flow Characteristics Controlled flow to prevent excessive spreading or distortion. Optimized particle size (5–50 µm) for uniform distribution in the powder mix.
300 mesh brazing powder CuP8 copper welding powder bronze alloy powder has stable quality

300 mesh brazing powder CuP8 copper welding powder bronze alloy powder has stable quality

    ✔ Composition & Melting Behavior Alloy: Cu-7.5%P-0.2%Ag (common variant of CuP8). Melting Range: 710–800°C (solidus-liquidus). Self-Fluxing: Phosphorus (P) acts as a flux, removing oxides during heating (no separate flux needed for copper joints). ✔ Mechanical & Joint Strength Shear Strength: ~150–220 MPa (depends on base metal and joint design). Ductility: Moderate (better than high-P alloys like CuP10). Electrical Conductivity: ~15–20% IACS (lower than pure Cu due to P content). ✔ Wetting & Flow Characteristics Excellent wetting on copper & copper alloys (brass, bronze). Not suitable for ferrous metals (steel, cast iron) – Forms brittle iron phosphides (Fe3P). Best for capillary gap brazing (0.05–0.2 mm clearance). ✔ Corrosion & Thermal Resistance Good corrosion resistance in water/refrigerant systems (used in HVAC, plumbing). Service Temperature: Up to 200–250°C (avoid high-stress high-temp applications).
Fe-Si-Al Sendust Reduced Iron Metal Powder Magnetic Shielding EMI Suppression

Fe-Si-Al Sendust Reduced Iron Metal Powder Magnetic Shielding EMI Suppression

    ✔ Magnetic Properties High Permeability (μ): 50–120 (depends on composition & compaction). Low Coercivity (Hc): <10 A/m → Reduced energy loss in alternating fields. Saturation Magnetization (Bs): ~1.0–1.2 T (suitable for medium-power applications). ✔ Electrical & Thermal Performance Low Core Loss (Pcv): Excellent for high-frequency (kHz–MHz) applications. Good Thermal Stability: Maintains properties up to ~500°C. High Resistivity (~80–150 μΩ·cm): Reduces eddy current losses. ✔ Mechanical & Chemical Properties Soft & Ductile – Easily pressed into complex shapes. Corrosion-Resistant – Forms a passive oxide layer (better than pure iron powder). Lightweight (Density ~6.6 g/cm³) – Lighter than ferrites. ✔ Powder Characteristics (for Compaction & Sintering) Particle Size: Typically 5–100 μm (adjustable for different applications). Morphology: Irregular or spherical (depending on atomization method). Binders Used: Epoxy, silicone, or phenolic resins for improved mechanical strength.

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