Turn your ideas into reality at every stage of development with 3D printing. Whether you’re prototyping, producing functional parts, or creating intricate models, we offer a wide range of 3D printing services and materials to suit your project’s unique needs.
3D printing is an innovative technology that transforms digital designs into tangible, three-dimensional objects. 3D printing brings your digital creations to life by precisely depositing, solidifying, or fusing layers of materials such as plastics, metals, or ceramics under computer control. 3D printing can create complex shapes and detailed structures that are difficult or impossible to achieve with traditional manufacturing methods.
3D printing can produce functional metal parts with complex geometries as one piece.
3D printing can produce parts with exceptional details, such as embossed and engraved features.
3D printing can produce durable, flexible parts using materials like TPU, TPE, and flexible resins.
3D printing can produce lattice structures that reduce weight while maintaining strength and functionality.
3D printing can produce assembly parts with precise fits, from artworks to functional end-use components.
3D printing can produce high-fidelity prototypes that closely match the final product in appearance, materials, finishes, and functionality.
Once customers upload their designs to our quoting system and place an order, we follow these steps:
Using CAD software, we check the customer’s design for any issues and ensure it is printable.
After arranging the customer’s design, we transfer the 3D design to the 3D printer.
The 3D printer builds the part.
We take the 3D prints out of the build chamber, then clean and polish them.
We check the prints for any defects, and if passed, then pack and ship.
SLM 3D printing uses a laser to melt and fuse metal powder into solid parts. It can create complex, high-performance metal parts for the aerospace, automotive, tooling, and medical industries. The metal 3D printed parts have a metallic silver-gray color and a grainy surface finish. Heat treatment and stress relief is available for metal 3D printed parts.
SLS 3D printing uses a high-powered laser to selectively melt and bind small plastic powder particles into a solid object. It can create complex and durable parts with high accuracy and precision. SLS printed plastic parts have a matte and grainy surface finish that feels a bit powdery when you touch the surface. Glass-filled nylon can be printed with SLS.
MJF 3D Printing uses inkjet printing and fusing agents to produce objects. It can create parts with high strength, durability, and dimensional accuracy. MJF is ideal for applications requiring complex geometries, functional testing, and end-use parts. MJF is known for its fast printing speeds, and MJF-printed parts also come in matte and grainy finishes.
SLA 3D printing uses a UV laser to cure liquid resin into solid objects. It is one of the oldest and most accurate 3D printing technologies, and it can create parts with high resolution and complex geometries. SLA 3D printing is ideal for applications that require high-detail, clear, or biocompatible parts. SLA printed parts have a smooth and glossy surface finish.
DLP 3D printing uses a digital light projector to cure liquid resin into solid layers. It can create parts with high resolution, accuracy, and a smooth surface finish. It is ideal for applications requiring fast prototypes and complex geometries. The main difference between DLP and SLA is that DLP uses a digital projector to cure an entire layer at once, making it faster.
3D printing metals are strong, durable materials that can create parts with high thermal and chemical resistance. Metal materials include steel, titanium, aluminum, copper, etc. Metals can be printed with SLM 3D printers and are ideal for aerospace, automotive, medical, and industrial applications.
3D printing is an additive manufacturing technology that can produce parts that cannot be made by CNC machining, such as hollow structures, lattice structures, and organic shapes. 3D printing can also reduce waste, setup, and labor to manufacture parts.
CNC machining is a process that uses rotating tools and cutters to remove material from a solid block to produce precise and complex parts (a subtractive manufacturing process). CNC machining can create parts with high strength, accuracy, and surface finish, and it can work with various metals and plastics. However, CNC machining has higher waste, setup, and labor costs than 3D printing, with more design limitations and restrictions.
3D printing is more flexible, versatile, and cost-effective for prototyping, customization, and low-volume production, but it has lower speed, quality, and material options than injection molding.
Injection molding is a process that injects molten plastic into a metal mold to produce large quantities of identical parts. Injection molding is faster, cheaper, and more accurate than 3D printing for mass production, but it requires high upfront costs for tooling and design.
3D printing can create parts with complex geometries, functional properties, and a wider range of materials, but it has lower resolution, surface quality, and color options than vacuum casting.
Vacuum casting is a process that uses a vacuum chamber to fill a silicone mold with liquid resin or rubber to produce small batches of plastic or rubber parts. Vacuum casting can create parts with high detail, smooth surface finish, and various colors and textures, but it has limited durability, accuracy, and material choices.
3D printing can create complex geometries and intricate details that are difficult or impossible to achieve with metal casting. Additionally, 3D printing is very effective for rapid prototyping and low-volume production because it eliminates the need for molds and reduces material waste. The process is also more automated, which can shorten production time and reduce labor costs.
Metal casting is a process where molten metal is poured into a mold to form the desired shape. It is ideal for producing large volumes of parts with consistent quality. It is particularly effective for manufacturing large, heavy components that require high strength and durability.
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