3D Printing Service
provide sla, sls, fdm, rapid plastic & metal 3D Printing Service, High accuracy, No tooling and saving cost. Fast delivery, ship within 3days.
3D Printing Application Products
With new materials emerging in recent years, 3D printing is finding wider and wider application in all fields.
3D Printing Service
3D printing technology is the general name of a series of rapid prototyping technology, and its basic principle is laminated manufacturing. At present, the rapid prototyping technology in the market is divided into SLA stereo lithography technology, SLS selective laser sintering, FDM melt lamination technology, DLP laser molding technology and UV molding technology. According to the characteristic requirements of different products, such as structure size, complexity and strength, professional 3D printing schemes can be provided.
Stereo-Lithography Apparatus (SLA) technology: SLA technology takes liquid photosensitive resin as raw material. Under the control of computer, the laser light scans the surface of liquid resin to draw each point of a two-dimentional cross-section layer of target object. Where it draws, photopolymerization occurs, and the liquid turns to solid. While a thin, two-dimensional cross-section completed, another splited layer begins. The layers are repeated and accumulated until three-dimensional solid prototype is obtained.
SLA 3D Printing Advantages
1. High accuracy
2. Smooth surface appearance
3. Suitable for complex and intricate geometries, fine parts
4. No tooling and saving cost
5. Fast delivery, ship within 3days
3D Printing Applications
1. Automotive plastic parts
2. Medical equipment parts
3. Eletronics Industry
4. Detecting instrument industry
5. Aerospace industry
3D Printing Manufacturing FAQs
3D printing technology is a digital manufacturing technology that creates a digital model through computer-aided design (CAD) software, then prints materials layer by layer through a 3D printer, and finally produces a physical model or part.
3D printing can create objects of all sizes and shapes, from small models, toys, and ornaments to machine parts, cars, medical devices, and more. Even houses and bridges can be made.
3D printing can use a variety of materials, including plastics, metals, ceramics, paper, food, and more. Which material to use depends on the item being made and the type of printer.
3D printing technologies include inkjet, photocuring, fused deposition, electron beam melting and other types, each of which has its own unique advantages and disadvantages and application scenarios.
3D printing technology requires 3D printers, computer-aided design (CAD) software, 3D scanners, materials and post-processing equipment, etc.
The history of 3D printing technology dates back to the 1980s, when the technology was only used to make prototypes. With the continuous development of technology, 3D printing technology has been widely used, covering various industries and application fields.
The difference between 3D printing technology and traditional manufacturing technology is that traditional manufacturing technology usually cuts or carves the desired shape from raw materials, while 3D printing technology makes it layer by layer from scratch. This makes 3D printing technology more flexible, fast and precise.
The advantages of 3D printing technology include rapid manufacturing, customization, high precision, and cost reduction. Disadvantages include limitations on making large items, slower manufacturing, limited material options, etc.
The application fields of 3D printing technology are very extensive, including aerospace, automobile manufacturing, medical equipment, construction, education, art and other fields. 3D printing technology can also be used to manufacture prototypes, small batch production and personalized manufacturing.
The quality assurance of 3D printing technology includes selecting appropriate materials, adjusting printing parameters, regular maintenance and cleaning of 3D printers, etc. Also, checks and tests can be performed to ensure the quality of the printed items.
The price of a 3D printer varies from a few hundred dollars to hundreds of thousands of dollars, depending on the brand, model, features, printing materials, and other factors.
3D printing requires software support such as computer-aided design (CAD) software and 3D modeling software. Common CAD software includes AutoCAD, SolidWorks, CATIA, etc., while 3D modeling software includes Blender, SketchUp, etc.
3D printer post-processing requires steps such as removing support structures, removing unnecessary residues, sanding, and painting. These steps can be performed according to specific materials and needs.
3D printers need to be cleaned and maintained regularly, including cleaning nozzles, checking moving parts, replacing worn parts, etc.
The printing speed of a 3D printer varies depending on factors such as model, printing material, and printing accuracy. Generally speaking, the printing speed is relatively slow, depending on the size and complexity of the printed item.
Common question in 3D Printing Production
The manufacturing materials of 3D printing technology include plastics, metals, ceramics, fibers, biomaterials, etc.
The future development trend of 3D printing technology includes faster, more accurate, larger-scale printing, the use of multiple materials, more application scenarios, and more sustainable materials.
The copyright protection of 3D printing technology can be realized through digital copyright technology, 3D printing file encryption, watermarking and other methods.
Compared with traditional manufacturing processes, 3D printing technology has certain environmental advantages. It can reduce waste of raw materials, reduce energy consumption, and use resources more efficiently.
3D printing technology has certain security risks, for example, it can be used to manufacture dangerous items such as guns. In addition, if used improperly, 3D printers may also cause safety problems such as fire and electric shock.
3D printing technology can be applied to food manufacturing, such as making chocolate, candy, bread and other foods, but it requires the use of special printers and food-safe materials.
3D printing technology can be applied in the medical field, such as making human organs, orthotics, prosthetics and other medical devices, and can even be used for surgical simulation.
3D printing technology can be applied in the field of construction, such as making architectural models, building components, etc. In addition, 3D printing technology can also be used to print architectural molds and templates.
3D printing technology can be applied to textile manufacturing, such as making clothing, shoes, bags, etc.
3D printing technology can be applied in the field of art, such as making sculptures, artworks, etc.
The printing accuracy of 3D printing technology varies with printer models, printing materials and other factors. Generally speaking, 3D printers with higher accuracy can achieve an accuracy of 0.1 mm or less.
The printing size of 3D printing technology varies with factors such as printer models and materials. The printing size of some 3D printers can reach several meters or larger, while others are limited to a size of a few centimeters.
The printing speed of 3D printing technology varies with factors such as printer model, printing material, and printing precision. Generally speaking, 3D printers with higher precision are slower, while 3D printers with lower precision are faster.
3D printing technology usually requires post-processing, such as removing support structures, sanding, painting, etc., to achieve a smoother and more beautiful effect.
The printing file format of 3D printing technology includes STL, OBJ, PLY, AMF and other formats, among which STL is one of the most commonly used formats.