Applications

Applications

Showing all 24 results

  • Bevel gear and Miter gear
    Gear

    Bevel gear and Miter gear

    Bevel gear : 8.78×8.78×5.75 mm. / Miter gear : 15x15x5.12 mm. These set of gear was traditionally manufactured by CNC machining, however, due to its minituarisation, it was necessary to change to μ-MIM® technology. Tolerance: Bevel gear : ≤ 0.5% / Miter gear : ± 0.007 mm

  • Frame part (Eyewear)
    Exterior Component

    Frame part (Eyewear)

    It is possible to achieve a small titanium part without post-processing.

  • Heat Sink
    Exterior Component

    Heat sink

    In addition to components made of pure copper, we also fabricate components made of copper alloys (nickel-white, cupronickel) and composites of copper and diamond.

  • Hinge part (Titanium part)
    Exterior Component

    Hinge part (Titanium part)

    The eyewear is made of titanium alloy. Micro MIM technology is ideal for serial production of titanium material because it is one of the difficultto to cut. It is possible to achieve such a small titanium part without any postprocessing.

  • Holder for sensor
    Holder

    Holder for sensor

    This holder for sensor has a very thin wall thickness of 0.08mm (80μm) on thinnest part, which is mass produced. Its tolerance is less than ±0.1%.

  • Inside Conductor
    Pipe

    Inside conductor

    It is impossible to make a pure copper part in mass production because it is considered difficult to cut.Using our micro metal injection moulding process, we are able to mass-produce this copper part in serial production.

  • Integrated helical gear and spur gear
    Gear

    Integrated helical gear and spur gear

    Integrated gear such as this helical and spur gear with the module of 0.025mm is mass produced with tolerance within 0.3%. Due to the small particle sized metal powder we use, you can hardly see the partling line on this component. By integrating two or more parts into one component, you can reduce the assembly process time and cost.

  • Internal gear
    Gear

    Internal gear

    μ-MIM® small gear production can be achieved without a tool, thus stable high-quality micro gear serial production is achieved. It is more difficult to assure high quality with the smaller gear.Our original quality analysis system includes measurement XrayCT SEM and high-end optical measurement system.Importantly, Our original analysis software will be used to compare the measured data with the 3D drawing data to show the pitch error, tooth line etc.

  • Laval nozzle
    Nozzle

    Laval nozzle

    The image of the cross section shows this laval nozzle with gradient diameter shape. It is difficult to manufacture by EDM, ECM, laser process or MIM.μ-MIM® can be used to make various shape nozzles.

  • Medical forceps (Disposable medical device)
    Forceps

    Medical forceps (Disposable medical device)

    When produced by machining, chucking is difficult and very costly.

  • Medical Pipe
    Pipe

    Medical Pipe

    We are capable of mass producing micro pipe with very complex internal flow channel, which is difficult to produce with conventional manufacturing technology, such as machining. The internal shape can be measured by the x ray CT scan.

  • Micro internal helical gear
    Gear

    Micro internal helical gear

    Normally, non-penetrating shape such as this internal helical gear with internal diameter of 10mm or smaller cannot be manufactured by CNC machining. μ-MIM® technology utilizes mould, which make such shapes to be produced for mass production. Even this helical gear with module 0.2 or less can be mass produced, which is very difficult with other manufacturing methods.

  • Micro Nozzle
    Nozzle

    Micro Nozzle

    0.03 mm is actually smaller than a standard hair diameter. It is said φ 0.05 mm is the smallest limit by machining at this moment. Our moulding and sintering technology using super fine metal powder, which cultivated as μ-MIM technology, realizes dense smooth surface, the roughness of Ra = 0.3 without post-processing. In microfabrication like this nozzle, it is difficult to achieve this surface quality even with the latest laser processing technology due to the problem of dross deposits or residual thermal stress and so on.

  • MIM Nipple
    Nozzle

    MIM Nipple

    By utilizing our μ-MIM® technology, hollow structure on the MIM nipple component is realized. It is an example of down sizing of serial production parts for medical devices with difficult-to-machine material.

  • MIM Nozzle
    Pipe

    MIM Nozzle

    This OEM nozzle component has a hollow internal structure and requires sharp edges in the external design. Production of these nozzles requires tight tolerances of ±0.02 mm for the internal design. With our micro-MIM technology, we can support such production with short delivery times and can support customers with larger lot numbers.

  • Multi step gear
    Gear

    Multi step gear

    Two step gears such as these components are produced for mass production with near net shape and stable high quality. Integrated gear with shaft are often produced by our μ-MIM® technology.

  • Pinion gear
    Gear

    Pinion gear

    The μ-MIM® technology enables stable, continuous production of small precision gears. We have good relationships with mould manufacturers, which enables us to achieve stable, continuous production of precision gears.Precision moulds lead to the stable production of gears with complex designs with low surface roughness, and µ-MIM® raw materials perfectly replicate precision mould designs.With a surface roughness Ra of 0.43 µm, additional polishing steps can be omitted.

  • Reverse taper micro structure
    Shaft

    Reverse taper micro structure

    The anchoring effect of the reverse taper micro pillars on the picture will strengthen bond strength physically.

  • Shaft (Direct bonding technology)
    Shaft

    Shaft (Direct bonding technology)

    This technology makes it possible to produce parts with more complex designs and combinations of different materials, which is not possible with one-shot moulding.The SEM image above shows the results of strength verification. It can be seen that the strength of the joint is sufficiently high, as there are no break points in the joint.

  • Small nozzle
    Nozzle

    Small nozzle

    These 17-4PH (SS630) nozzles are used in the semiconductor industry. Due to design and tolerance requirements, the CNC machining chuck had to be changed several times during the process, resulting in high component costs. The customer selected our MIM process for its productivity, tolerances and quality.

  • Special part for key cylinder
    Cylinder

    Special part for key cylinder

    A component such as this special part for key cylinder is manufactured by our 3D-μ-MIM® technology, which is our original invention where a SP mould is created and dissolved/melted in the debinding process. This method enhances your component design freedom when you want to have hollow structure, undercut structure and so on.

  • Tape holder
    Holder

    Tape holder

    These parts are stainless steel components manufactured using micrometallic injection moulding technology, using fine stainless steel powder, mixed with a proprietary recipe manufactured in-house.The parts are characterised by a smoother surface roughness and higher density compared to those produced by conventional MIM processes.When manufactured by machining, costs are higher and lead times are longer.

  • Titanium propeller
    Propeller

    Titanium propeller

    In this OEM part made of titanium material, we apply world-leading titanium powder with our binder and create a free-form design, tight tolerance, thin wall thickness without any post-processing or secondary processes. Titanium is one of the most difficult parts to make because of its mechanical properties, but we are able to make it with our micro metal injection moulds.

  • Yoke part
    Yoke

    Yoke part

    Soft magnetic materials are among the most difficult materials to machine and are difficult to produce in series.μ-MIM® has a proven track record in the continuous production of small, complex designed soft magnetic material components with good magnetic properties and satisfying tight tolerances.Unlike conventional powder metallurgy, it achieves a density of 98% of that of wrought materials and satisfactory magnetic properties.

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