Eplus3D is a global leader in additive manufacturing (AM) solutions, specializing in high-performance metal 3D printing technologies. We empower industries - including aerospace & aviation, automotive, energy, oil & gas, machinery, tooling, healthcare, 3C products, and semiconductor manufacturing - with innovative, productivity-driven AM systems that maximize ROI, streamline production, and accelerate innovation.
With the industry's advanced level of 3D printing metal, polymer, stereolithography and other additive manufacturing technologies, Eplus3D has independent research and development of laser technology-based metal and high-performance plastic additive manufacturing printing equipment and materials, which are widely applied in aerospace, automotive, medical, mold industries, etc.
The software solution independently developed by Eplus3D is easy to operate with the features of one-click printing, offline analysis, etc., which can maximize printing efficiency and reduce labor costs. This is also one of the core competitiveness of Eplus3D in the metal 3D printing process and additive manufacturing system.
At present, the mainstream metal 3D printing powders in the domestic and foreign markets mainly include iron-based alloys, aluminum-based alloys, titanium-based alloys, nickel-based alloys, and cobalt-based alloys.
Iron-based alloys are one of the most widely used metal materials in industry, and they are also the earliest metal materials used in 3D printing. Currently, iron-based metal powders suitable for 3D printing include stainless steel, tool steel, martensitic steel, etc. Printed parts of iron-based alloys are found in military industry, aerospace, industrial molds, automobile industry, petrochemical industry and other fields.
Because of its low melting point, aluminum-based alloys are light in finished parts, excellent in mechanical properties, and cheap in price, the use of aluminum-based alloys in 3D printing has been increasing, but the disadvantages of aluminum-based alloys are also obvious because of its light weight. Therefore, the fluidity of the aluminum alloy powder produced is poorer than that of other metal powders. In addition, it is easy to form an oxide layer around the powder particles during laser sintering, which needs to be removed under high temperature protection. However, the low temperature resistance of aluminum limits the For this kind of operation, there are few types of aluminum-based alloys currently used for metal 3D printing, only AlSi12 and AlSi10Mg. If you want to use it on a large scale, you need to make continuous breakthroughs in materials. The printed parts of aluminum-based alloys are mainly used in thin-walled parts such as heat sinks, heat exchangers, etc., as well as lightweight and complex non-load-bearing parts in the aerospace field.
Titanium and titanium alloys have the characteristics of high strength and hardness, corrosion resistance, and low elastic modulus. They are the most suitable metal materials for 3D printing, but their prices are relatively expensive compared to other alloys. At present, they are mainly used in aerospace, medical (orthopedic implants), luxury cars, racing cars and professional sports equipment.
Nickel alloy is a high-temperature-resistant alloy with good tensile, fatigue and thermal fatigue resistance properties. It is often used to manufacture parts that require high temperature resistance, such as aircraft engines, gas turbines, aircraft turbine engines and other parts. It is widely used in chemical industry, power industry and oil and gas fields.
Cobalt-based alloys have the advantages of good high temperature performance, high strength, corrosion resistance, wear resistance and biocompatibility, and are mostly used in dentistry, plastic surgery, aerospace and other fields.