Plastic & metal printing on demand - the fastest way to get your prototypes and production parts
Plastic & metal printing on demand - the fastest way to get your prototypes and production parts
ISO 9001 CERTIFIED
CNC machines
CNC machined parts/ month
Plastic & metal materials
Customization and personalization: 3D printing allows parts and products to be easily customized to meet individual needs.
High degree of design freedom: It is possible to create complex geometries that are difficult or impossible to manufacture with traditional manufacturing techniques.
Rapid prototyping: Designers and engineers can quickly print out prototypes, accelerating the product development process.
Reduced material waste: 3D printing uses only the required materials, reducing material waste.
Reduced tooling costs: No expensive molds or tools are required, especially for complex parts.
Versatility: The ability to print in a variety of materials and colors increases design flexibility.
Process: CNC turning+ milling
Material: stainless steel 316
Tolerances: ⌖0.05mm
Finishes: As machined (Ra0.8μm/1.6μm)
automation-cnc-turning--stainless-steel-joint--rod
Process: CNC turning
Material: stainless steel
Tolerances:◎ 0.05mm;
Finishes: Bead blasted, Clear anodized
automation-machine-aluminum-cnc-machining-cooling-plate
Process: CNC milling
Material: aluminum alloy
Tolerances: //0.2; ⌖0.05mm
Finishes: Bead blasted, Clear anodized
5-Axises-CNC-Machining-Metal-Precise-and-Complex-Prototypes
Process: CNC milling
Material: aluminum alloy
Tolerances: ISO 2768-m
Finishes: As machined 1.6μm
cnc-turning-aluminum-part-motor-front-cover
Process: CNC turning + milling
Material: aluminum 6061
Tolerances: ISO 2768-m
Finishes: Bead blasted, Clear anodized
Custom-Cnc-Mechanical-Aluminum-Plate
Process: CNC milling
Material: Aluminum 5083
Tolerances: ISO 2768-F
Finishes: Polishing
custom-non-standard-stainless-steel-cnc-parts-precision-shaft
Process: CNC turning + milling
Material: stainless steel 304
Tolerances: H6(0.016mm); h6(0.025mm); G5(0.018mm); ⌖(∅0.2mm)
Finishes: As machined Ra0.8μm
high-persion-aluminum-cnc-machining-medical-parts
Process: CNC milling
Material: aluminum 7075
Tolerances: ISO 2768-F, ▱ 0.1mm
Finishes: Polishing
SLM 3D printing materials
The materials used in SLM technology are mainly metal powders, including stainless steel, mold steel, titanium alloy, aluminum alloy, cobalt-chromium alloy, nickel alloy, copper, etc. The entire printing process is carried out in a closed chamber filled with inert gas (such as argon) to prevent metal powder oxidation. , the laser system usually uses a fiber laser with a wavelength of 1064nm and a laser power range of 200 to 1000 watts
name | Can BeApplled with | ||
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Removal of support structures | Use mechanical tools or chemical methods to remove support structures added during the printing process. |
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Surface treatment | Such as grinding, polishing or sandblasting to improve the surface finish of parts. |
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Heat treatment | Including annealing, normalizing, quenching, tempering, carburizing/nitriding treatment, etc., to eliminate internal stress, improve material uniformity and optimize microstructure. |
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Hot isostatic pressing (HIP) | Improve the density and mechanical properties of parts. |
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Machining | Such as milling and grinding to achieve more precise dimensions and complex geometric features. |
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Non-destructive testing | Use technologies such as CT scanning or X-ray inspection to detect internal defects. |
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Surface roughness improvement | Directly reduce the roughness of printed parts by optimizing laser scanning strategies and post-processing technologies such as laser shock peening and abrasive flow. |
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SLA surface treatment | Cleaning,Post-curing,Sanding,Polishing,Coating,Dyeing. |
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SLS Surface Treatment: | Powder Recycling,Sandblasting,Vibration Grinding,Vapor Smoothing,Dyeing,Coating. |
3D printing and machining (including CNC machining) are two important technologies in modern manufacturing, each with unique advantages and limitations.
3D printing is suitable for complex design and small batch production, with limited material selection but fast production and low cost. machining has high precision, is suitable for large-scale production, and has a wide range of material selection. When choosing, you need to consider design, batch, material, precision and cost.
Prototyping is the process of creating a physical model based on a product design or concept, a prototype is this model actually, can be used to test the feasibility, functionality, durability, and other performance characteristics of the design. It can also be used for display, market research, or as a reference before production. Prototyping can use a variety of materials and techniques, such as 3D printing prototyping, CNC machining, and hand-made production, with the goal of actually testing and adjusting the design before the product is mass-produced.
SLS printing is very suitable for printing parts with complex internal structures, such as lattice structures, moving parts, etc.
The most commonly used material for SLS printing is nylon, but other engineering plastics such as PP, TPU, etc. can also be used.
After SLS printing is completed, excess powder needs to be removed, sandblasting may be required to improve surface quality, and heat treatment may be required to improve mechanical properties.
Objects printed by SLS have high strength and durability, comparable to injection molded parts.
SLA printing is suitable for making fine, complex prototypes, jewelry, artwork, and some functional parts.
Yes, complex geometries during SLA printing often require support structures in order to properly print overhanging parts.
After SLA printing is completed, washing is usually required to remove uncured resin, and post-curing may be required to complete the polymerization process, as well as possible grinding, polishing, and painting processes.
After SLA printing is completed, washing is usually required to remove uncured resin, and post-curing may be required to complete the polymerization process, as well as possible grinding, polishing, and painting processes.
The cost of an SLM system ranges from $300,000 to $1,000,000+, depending on size, features, and options
The advantages of SLM include high design freedom, no hard tooling, reduced material waste, suitability for complex and small batch production, reduced development time, and improved performance
Typical applications of SLM include turbine blades in the aerospace field, orthopedic implants in the medical field, and lightweight components in the automotive field