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Product details for Formlabs SLA - Form 4 and supported materials.
1. File preparation 2. Printing 3. Post-print processing
Try designing for free! with PreForm® Software.
All of these components work together as a complete system, eliminating the need for external equipment, reducing complexity, and delivering a clean, durable, and ready-to-use finish—all in one set.
The SLA model comes in 2 sizes.
SLA Form 4 Small Size - Used for creating small parts → 20 × 12.5 × 21 cm SLA Form4L Large Size - Used to create large, tall parts → 35.3 × 19.6 × 35 cm
One set requires 3 machines.1. FormPrinter (printer)2. FormWash Washing Machine3. FormCure Drying Machine
Low Force Display™ (LFD) technologyXY resolution: 50 µm (Form 4) / 46 µm (Form 4L)Layer thickness: 25–300 µm / 25–200 µm Maximum speed: 100 mm/h (Form 4) / 80 mm/h (Form 4L)
Formlabs' main category of printing materials - Resin.
For prototyping and general modeling, we offer a range of resins including high-speed resin (Fast Model), high-resolution resin (Precision Model), transparent resin (Clear), basic greyscale resins, and custom-colored resins (Color Resin V5).
Materials developed for practical industrial applications, such as tough/durable, rigid glass fiber reinforced, flexible/elastic, Silicone 40A, high temperature, flame retardant, ESD-safe, as well as polyurethane and alumina resin.
Medically certified for digital dentistry applications, including Precision/Fast Models, Surgical Guides, Dental LT, Permanent Crowns, and other specialized materials for splints, trays, and digital dentures.
Manufactured under ISO 13485 standards, suitable for sterilization, and ideal for equipment in contact with skin or respiratory systems, such as BioMed White, Clear, Durable, Elastic 50A, and Flex 80A.
For example, castable resin for lost wax casting and high-temperature resin for vulcanized rubber molds.
Main steps: Washing → Removing supports (bases that hold the surface to the workpiece) → Curing.
For SLA technology (Formlabs Form 4 Series)
Formlabs has certifications and related registration documentation in several areas, including:
Stereolithography (SLA) technology was patented by Charles (Chuck) W. Hull in 1986, the founder of 3D Systems.
Contact our sales team at 080-010-8801. Contact general staff at 020-777-207.Or add LINE ID: @fakiki (include the @ symbol)[Opening hours: Weekdays 09:00 - 12:00 / 13:00 - 17:00]
3D printers are technologies capable of creating real objects from three-dimensional digital models designed on a computer. The key principle of operation is layering material on top of each other until a tangible object is formed. This process is called additive manufacturing, which differs from traditional manufacturing that relies on cutting, drilling, or milling material from a large block to achieve the desired shape.
In practical use, users start by designing a 3D file in computer software such as CAD. The file is then processed through "slicing software" to convert it into a machine-readable format. The 3D printer then begins its work, releasing material layer by layer until the finished object is complete. This process makes it easy to create complex shapes and significantly speeds up the prototyping process.
A wide variety of materials can be used with 3D printers. Popular materials include filament plastics such as PLA and ABS, which are inexpensive, easy to use, and suitable for learning or general prototyping. There is also liquid resin, which offers high resolution and smooth printing, making it popular for applications requiring precision, such as jewelry, model design, or dentistry. For industrial applications requiring strength and durability, there are metal printing materials for machine parts or automotive components. Specialty materials like nylon, carbon fiber, and even materials used in food-grade chocolate are also available.
The benefits of 3D printers are numerous, including creating prototypes for testing before mass production, which saves time and costs; applications in education, allowing students to experiment with 3D modeling; medical applications, such as producing models of organs, dentures, or custom-made devices; manufacturing rare parts or components for machine repair; and even creating intricate works of art, models, and jewelry that would be difficult or very expensive to produce using traditional methods.
However, 3D printers also have some important considerations and limitations. For example, printing speed depends on the size and resolution of the design; highly detailed designs will take longer. Some finished pieces may require further finishing touches such as surface sanding, cleaning, or assembly to achieve the desired quality. Users should also have basic knowledge of 3D design and printer settings to ensure the best possible results.
In summary, 3D printing is a technology that allows everyone to easily create real objects from digital files, whether for education, prototyping, repairs, art, or even actual industrial production. This technology has become a crucial tool that is transforming manufacturing and provides a valuable foundation for anyone interested in the future of innovation.
3D printing isn't limited to a single type; there are actually many different technologies depending on the application and materials used. One of the most familiar methods is FDM (Fused Deposition Modeling), which works by heating and melting plastic filament and then layering it on top of each other to create the desired object. This method is considered easy to use, low-cost, and suitable for beginners or general prototyping. Another technology is SLA (Stereolithography), which uses a laser to solidify liquid resin point by point, resulting in highly detailed, smooth, and aesthetically pleasing objects. This makes it popular in jewelry design, dentistry, and models requiring high precision. Industrial-grade technology is SLS (Selective Laser Sintering), which uses a laser to melt and fuse powdered material, such as nylon or metal, layer by layer. The advantage is the ability to produce strong, functional parts without complex support structures, making it suitable for manufacturing machinery parts, automotive components, and advanced engineering applications.
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