Specifications

High Precision Medical Equipment Parts
1.High Shape Complexity,Tight Tolerance,Low Cost
2.RoHS,SGS,TS16949

  High Precision Medical Equipment Parts

1. We specialized in the PIM technology of research and development,  production and service,

    which include Medical Equipment Parts and so on.

2. Process: medical equipment parts

3. High precision,100% quality with competitive price for medical equipment parts.

4. We can make medical equipment parts according to customers' drawings or requirement (OEM).

5. Short delivery time.

 

 Customer Show ( Customer Approval Show Only )

 ——————————————————————————

Note: Sofine PIM is not authorized to use their names, these names are just to shows our skill level and products standards.

 

Quality Assurance

—————————————————————————— 

 

 

• Obtained ISO9001: 2000 version quality system certification in August 2007.
• Obtained ISO9001: 2008 version quality system certification in October 2010.
• Obtained QC080000:2005 version certification in October 2010.
• Obtained certifications of TS16949 in April 2013.
• All products have SGS or CTI report, conform to Environmental request of RoHS. Material has test report of REACH.

 Post Process 

——————————————————————————

 

Cosmetic Base Post Process information are Subject to Material & Requirements
CNC Post    Process	Some complex shape product need CNC/ Machining during the post process,this could be addition but it is not important that every part must need it. This depend on part's requirements.
PVD	Possible to get the different PVD color such as White,Black,Golden,Brown,Green,Blue ect……
Surface   Finish	MIM product are good to get the required surface finish such as hair line surface finish,brush finish,sand blast mirror surface finish ect
Plating	MIM material can be readily plated or surface treated with standard process used on wrought material with no need for special surface preparation.Examples of some plating and surface  treatments offered are: electrolysis nickel,chrome,zinc,chromatic,nickel teflon,black oxide and passivisation.

 

  

  Overview

 ——————————————————————————

 

•  Professional PIM turnkey solution provider since 2004
•  15+ patents of invention in binders and process design
•  700+ employees, 10%+ from engineering and R&D
•  Over 250 Tons annual power consumed capability
•  35,000 square meters of facility

Technology Strength

——————————————————————————

Feature	Best Possible ±	Nominal or Typical ±
Absolute dimension	0.025mm(0.001 inch)	0.05mm(0.002 inch)
Angle	0.05°	2°
Density	0.20%	1%
Dimension	0.05%	0.30%
Fatness	0.10%	0.20%
Hole diameter	0.04%	0.10%
Hole location	0.10%	0.30%
Parallelism	0.20%	0.30%
Perpendicularity	0.1% or 0.1°	0.2% or 0.3°
Mundness	0.30%	0.30%
Surface roughness	0.2μm(8 μ inch)	0.8μm(32 μ inch)
Weight	0.10%	0.40%
Comer radius	0.5mm(0.02 inch)	0.3mm(0.012 inch)

 

 

 Business Distribution

——————————————————————————

 

 

 

 Process Description

——————————————————————————

 

 

	Metal powder of fine partical size is mixed with thermoplastic polymer to form a mixture of ingredients konwn as feedstock. The feedstock made into pellets and fed into the moulding machine.
	The feedstock is heated to melt the plastic and molded to the desired shape. The moulded parts is known as green part.
	The binder is removed thermally by heating to around 400 degree centigrade from the green part,by a debinding process. The debound parts called as brown parts and is brittle and porous.
	The brown parts is heated to more than 1200 degree centigrade,in the finale sintering process allowing the part into a dense solid with the elimination of pores. The sintered density is wimilar to a casting at about 98% of theoretical.

 

 

 

 

Product Management

 

——————————————————————————

ESI ( Earlier Supplier Involve )

• Conception modeling and optimize
• design for manufacturing assessment
• Cost-effective modeling

Tooling Design & Fast Prototyping

• Tooling design and fabrication
• Fast prototyping
• Failure mode effective analysis
• Sample qualification by 3rd party testing

Net-shape

• NPI management
• Process fine-tune
• Self-motivated cost down plan
• Capacity and delivery balancing

Secondary Operations

• Maching,laser welding
• Surface finish
• Heat treat
• Final assembly if necessary

     Surface finish:electroplate, PVD, sandblasting, painting, polishing and laser engraving etc.

 

 

 Design Guideline

 ——————————————————————————

Fast assessment of a part suitable for metal or ceramic injection molding based on:

 

•     Cost-effective

 

        Normally yearly demand over 20k and typical weight from 0.02-50g will be highly cost reduction when tooling cost and raw material cost been considered.

 

•     Geometry complex

        PIM technology is specially profit for component has holes,slots,ribs,protrusions,and multiple features.The typical max outlet is range from 25mm to 35mm,wall thicjness 0.08 to 10mm.

 

 

Several aspects of the PIM component design improve the ease of manufacturing,and there are a number of design features that should be avoided. These are categorized as follows:

 

  Allowed design features

• Axisymmetric,nonsymmetrical,prismatic,square,and freeform features
• Cantilever and nonsymmetrical shapes
• Stiffening ribs and locator features for assembly
• Protrusions,bosses,and studs
• Most hole shapes are allowed, including blind and through holes
• Holes at angles to one another
• Undercuts, grooves,slots,depressions
• External teeth,external or internal threads
• Knurled and waffle surfaces
• Part number or identification logo created by the mould

  Features to avoid

• Inside closed cavities
• Undercuts on internal bores
• Very shape corners or design-desired radius greater than 0.05mm
• Long pieces without a draft or taper to allow ejection

Q: What is MIM technology ?
A: MIM (Metal Injection Molding) is a manufacturing technology that combines the shape making complexity of Plastic Injection Molding with the material flexibility of Powder Metallurgy.

 

If you want to know more about PIM, please click here what's PIM.