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Applications: Mobile‑phone vibrators, counterweight blocks, radiation shielding components, electrodes, military‑industry spare parts

Applications: R, K, S, F four‑series hardened‑tooth gear reducers, conveyors, mixers, fans and water pumps Shaft layout: Parallel‑shaft input and output Advantages: Gradual tooth engagement, smooth transmission, low noise, high load‑bearing capacity, suitable for high‑speed and heavy‑duty conditions Disadvantages: Generates axial force, and bearings need to withstand axial thrust Reduction ratio: Single‑stage i=1‑6; multi‑stage ratio up to i=6‑400

1. Machining Process (First‑choice for Heavy‑duty, High‑precision & High‑torque Applications) Process flow: Cutting → Forging blank → Lathe turning (T‑shaped step, inner bore) → Gear hobbing / gear shaping → Deburring → Heat treatment → Inner‑bore grinding / end‑face grinding → Gear honing

As a reliable China‑based manufacturer, professional factory and trusted supplier engaged in advanced metal‑forming technology, we would like to share how metal injection‑molding (MIM) shines within modern‑day manufacturing. In modern‑day manufacturing, metal injection‑molding (MIM) technology is playing an increasingly vital role with its unique strengths. For every qualified China manufacturer, well‑equipped factory and seasoned supplier, MIM has gradually become an essential competitive process. What exactly are the core functions of metal injection molding?

Iron‑based Powder Metallurgy (the highest‑output and mainstream option in the industry) Matrix materials: pure iron, iron‑carbon, iron‑copper‑carbon, and iron‑nickel‑molybdenum alloy powder Features: cost‑effective with adjustable strength; density can be improved via repressing and resintering Applications: automotive gears, sprockets, oil pump rotors, shock‑absorbing components, power‑tool gears and structural bases