[weglot_switcher]

MIM MATERIALS PORTFOLIO

Materials We Use in Metal Injection Molding

Meta Build Industries engineers precision MIM components using a carefully selected portfolio of high-performance alloys trusted worldwide.

YEARS IN MIM
0 +
EXPERT EMPLOYEES
0 +
YEARLY SALES (USD)
0 M
SINTERED DENSITY
> 0 %

Engineering ExcellenceΒ 

The Importance of Material Selection in MIM

Material selection is the foundation of every MIM project. The choice of feedstock determines mechanical strength, corrosion resistance, magnetic properties, and dimensional accuracy, directly impacting performance and longevity.Β 

Mechanical Performance

Each alloy is qualified to meet precise tensile strength, hardness, and fatigue specifications required by your industry and application.

Corrosion & Oxidation Resistance

We select materials with proven corrosion resistance profiles β€” from marine-grade stainless steel to superalloys for extreme environments.

Magnetic & Electrical Properties

Soft magnetic alloys and iron-nickel grades are precisely selected for electromagnetic performance in sensors, actuators, and solenoids.

High-Temperature Capability

Superalloys and tool steels are specified for components operating under elevated temperatures, thermal cycling, and oxidising atmospheres.

Biocompatibility & FDA Compliance

Medical and dental-grade materials are selected for full biocompatibility β€” ISO 10993 and FDA compliance for implantable and surgical devices.

Global Supply & Traceability

Every material is sourced with full batch traceability, material test certificates, and compliance to international standards (ASTM, DIN, JIS).

Mechanical Strength

Designed for durability

Corrosion Resistance

Performs in harsh environments

Thermal Stability

Withstands extreme temperatures

Biocompatibility

Safe for medical applications

Traceability

Ensures complete quality control

Cost Efficiency

Optimized production processes

FULL MATERIAL PORTFOLIO

Materials We Work With

We use a broad range of MIM-grade metal alloys selected for their mechanical, thermal, and chemical performance across industries.

Stainless SteelΒ 

316L Stainless Steel

Excellent corrosion resistance in aggressive environments. Ideal for medical devices, dental instruments, food-contact applications, and marine components requiring biocompatibility and surface quality.Β 

MedicalDentalMarineFood Industry

STAINLESS STEEL

17-4 PH Stainless Steel

Provides high tensile strength with good corrosion resistance. Commonly used in aerospace components and high-performance industrial applications.Β 

AerospaceIndustrial

STAINLESS STEEL

420 Stainless Steel

Offers high hardness and wear resistance after heat treatment. Suitable for precision cutlery, surgical blades, and industrial tooling.Β 

FirearmsCutleryTooling

Low-Alloy SteelΒ 

MIM-4605 Low-Alloy Steel

Delivers strength and toughness with excellent hardenability. Widely used for automotive components, gears, and fasteners.

AutomotiveGearsFasteners

Soft Magnetic AlloyΒ 

MIM-2700 (Iron-Nickel)

High magnetic permeability for electromagnetic applications such as solenoid cores, sensors, and actuators.Β 

ElectromagneticSensorsActuators

SuperalloysΒ 

Inconel / Superalloys

Exceptional high-temperature strength and oxidation resistance for aerospace and energy applications, enabling complex geometries.Β 

AerospaceHigh-TempEnergy

Titanium AlloyΒ 

Ti-6Al-4V

Lightweight, high-strength, and biocompatible. Ideal for aerospace structures and medical implants.Β 

Medical ImplantsAerospaceBiocompatible

Tool SteelΒ 

M2, H13 Tool Steels

Provide high hardness and wear resistance for cutting tools and precision tooling components.Β 

Cutting ToolsDie InsertsTooling

QUICK REFERENCE GUIDΒ 

MIM Material Comparison Guide

A quick reference guide to help engineers select the optimal MIM alloy based on performance and cost requirements.Β 

MATERIALDENSITY (G/CMΒ³)TENSILE STRENGTHCORROSION RESISTANCEBEST FORCOST
Low-Alloy Steel (MIM-4605)7.5–7.8800–1400 MPaLowAutomotive, IndustrialLow
Stainless Steel 316L7.6–7.9500 – 700 MPaVery HighMedical, MarineMedium
17-4 PH Stainless Steel77.6–7.8900 – 1,300 MPaHighAerospaceMedium
Titanium Ti-6Al-4V4.40 – 4.45860 – 950 MPaVery HighAerospace, MedicalPremium
Copper (Pure)8.9 – 9.0200 – 350 MPaMedium-HighElectronicsMedium

Β 
Β 

Our MIM Process

How We Process MIM Materials

From certified feedstock to finished precision component β€” our end-to-end MIM process ensures dimensional accuracy, material integrity, and certified performance at every stage.

01
Feedstock Powder + Binder
02
Injection High-pressure molding
03
Debinding Binder removal
04
Sintering Density achieved
05
Finishing Final precision


Our MIM ProcessΒ 

How We Process MIM Materials

From certified feedstock to finished precision components, our end-to-end MIM process ensures dimensional accuracy, material integrity, and consistent performance.Β 

01

Feedstock

Powder and binder are mixed to create a uniform feedstock for molding.

02

Injection

High-pressure molding is used to form the component into the desired shape.

03

Debinding

Binder removal is carried out to prepare the part for sintering.

04

Sintering

The component is heated to achieve final density and mechanical properties.

05

Finishing

Final processing ensures dimensional accuracy and surface quality.

Looking for the Right Industrial Solution

We help businesses improve efficiency with customized solutions.

7 * 1 = ?
Click to have the CAPTCHA read aloud

Please enter the characters shown in the CAPTCHA to verify that you are human.