MinHe supports CNC milling, turning, and 5-axis machining for custom metal and plastic parts, covering prototyping, low-volume production, and repeat orders.
DFM feedback and quote in as fast as 1 business day
Support for 1-off prototypes to low-volume production
Aluminum, stainless steel, carbon steel, brass, and engineering plastics
Multiple surface finishing options and critical dimension inspection
Supported formats: STP | SLDPRT | IPT | PRT | SAT
All uploads are kept strictly confidential.
Milling, turning, and 5-axis machining for prototypes and production parts.
For prismatic parts, pockets, and complex 3D features.
Ideal for stepped surfaces, slots, and 3D contours
From single prototypes to small-batch production runs
For shafts, bushings, threads, and other rotary components.
Ensures concentricity, surface finish, and stable dimensions
Flexible from one-off parts to repeat production
One-setup machining for complex surfaces and multi-side features.
Reduces setups while improving accuracy and consistency
Suitable for blades, impellers, housings, and complex 3D geometries
Enhance appearance, protection, and final part performance.
• Anodizing, plating, polishing, sandblasting, and powder coating available
• Finishes selected for corrosion resistance, wear resistance, and cosmetic requirements
Experience, scale, and delivery you can rely on.
We support prototypes to production with CNC milling, turning, and 5-axis machining. Our engineers review manufacturability early, control critical dimensions during production, and provide clear communication from quote to delivery.
DFM feedback before production
In-process inspection for key features
CMM / FAI reports available on request
Stable lead times and secure packaging
Upload your drawings, get DFM feedback and a quote, then we machine, inspect, and ship.
Send STEP/IGES/PDF and key requirements (material, tolerance, finish, quantity).
We confirm manufacturability and share a fast quote with lead time.
Production starts after approval. In-process checks ensure stable quality.
Final inspection, protective packaging, and safe shipping. Reports available on request.
At MinHe, every batch of parts follows a clear and traceable quality workflow. From incoming material verification and first-article checks to in-process inspection and final release, we document and review each step to make sure the parts you receive are consistent and reliable.
We set inspection checkpoints at incoming, first-article, in-process, and final stages. Critical dimensions, appearance, and functional features are checked against drawings and specifications, and any non-conformities are isolated and fed back into corrective actions.
Our quality lab is equipped with CMMs, optical projectors, hardness testers, and other measuring tools. Dedicated inspectors handle daily measurements and data recording, and custom gauges or inspection plans can be set up for complex or tight-tolerance parts.
We can provide FAI reports, batch inspection records, and other documentation on request. All production and inspection activities run under an ISO-based quality management system with full traceability to support your internal audits and supplier management.
Upload your drawings and get DFM feedback and a quote within 1 business day.
What Is the Difference Between 6061 and 6063 Aluminum? This article compares 6061 and 6063 aluminum alloys in terms of chemical composition, mechanical properties, manufacturing performance, weldability, price, and applications, helping you understand which material is more suitable for CNC machining, structural components, or aluminum profile applications.
What Is Spline Shaft Machining? This article introduces common spline shaft types, machining methods, materials, and applications, while explaining how tooth profile accuracy, concentricity, heat treatment distortion, and fit clearance affect assembly and performance.
Choosing the right aluminum alloy can affect part strength, machining efficiency, and manufacturing cost. This article compares 6061 and 6082 aluminum, including material properties, mechanical performance, T6 temper, material availability, and typical applications to help select the right alloy for CNC machined parts and structural components.
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Wind power, solar energy, hydropower, and energy storage systems may belong to different renewable energy sectors, but they all rely on a wide range of precision machined components. This article explains how CNC machining is used in these renewable energy applications, with a focus on part manufacturing, material selection, machining processes, and future trends.
This article explains the basic concept of CNC text milling, the machining process, and how CAM converts text into G-code. It also discusses how font selection, tool types, material properties, and design rules affect the clarity, durability, and machining cost of milled text.
Choosing between 3-axis, 4-axis, and 5-axis machining is not simply about using more axes. The key is whether the part features require better tool angles and fewer setups. This article compares the three CNC machining configurations from the perspectives of tool access, workholding setup, part complexity, programming difficulty, and total machining cost, helping readers make a practical process selection.
4-axis machining adds a rotary axis to standard 3-axis CNC machining, making it suitable for parts with multi-face features, side holes, circumferential grooves, and cylindrical profiles. This article explains the definition and working principles of 4-axis machining, compares indexed and continuous 4-axis methods, and outlines its advantages and limitations in reducing setups, maintaining feature relationships, and machining medium-complexity parts.
In stainless steel CNC machining, 18-8 and 303 are often used for different types of parts. 18-8 is more suitable for general fasteners and corrosion-resistant structural components, while 303 offers better machinability and is commonly used for automatic lathe parts, shafts, and small precision components.
In many steel, mold, and precision mechanical parts, soft machining is used before heat treatment to remove most of the excess material and create the basic part geometry. This article explains how soft machining works, which tools are commonly used, what types of parts it suits, and why machining allowance and late
CNC machining lead time is not determined only by machine run time. It is also affected by material availability, drawing completeness, tolerance requirements, inspection documents, and post-processing steps. This article helps purchasing teams understand where lead time comes from, estimate typical delivery cycles, and reduce project delay risks.
This article explains the main components of CNC machining cost, including material, programming, setup, machine time, tooling, inspection, and post-processing. It also shows how to reduce custom part pricing through better geometry, practical tolerances, and complete technical documentation.
To prepare a quote, we usually need:
If you only have a sample or rough sketch, you can also send it to us and our engineers will help you define what is needed.
For most CNC machining projects, we provide DFM feedback and a quote within 1 business day after receiving complete information. Complex parts or large RFQs may take slightly longer.
We commonly machine:
If you have a special material, please contact us and we will check machinability and lead time.
For standard CNC machining parts we typically work to:
The achievable tolerance depends on material, geometry, and inspection method.
Typical lead times are:
If you have an urgent project, let us know your target schedule and we will check the fastest feasible plan.
Yes. We can provide CMM/FAI reports, material certificates, and other inspection documents on request. All customer drawings, models, and data are treated as strictly confidential and are only used for manufacturing your parts.
