Pro3 HS Series

FFF • Dual Extrusion • High-Speed Printing up to 300mm/s • RFID Traceable Workflow

Pro3 Series

FFF • Dual Extrusion • Improved Cooling • Interchangeable Hot Ends

RMF500

Large-Format FFF (500 × 500 × 500 mm) • Dual IDEX • Carbon Fiber Composites & High-Strength Polymer

RMS220

SLS • Low TCO • High Output • High-Precision Prints • Industrial and Functional Material

DF2+ (DLP Resin)

DLP • True DLP Precision • Faster Prints • RFID Traceable Workflow • Broad Resin Portfolio

DF2 (DLP Resin)

DLP • High Resolution Resin Printing • RFID Traceable Workflow • Wide Range of Resin Compatibility

FFF • Dual IDEX • Flexible and Fiber-Reinforced Filaments • Enclosed Build Chamber

E2CF

FFF • Dual IDEX • For Fiber-Reinforced Filaments • Dry Boxes • Enclosed Build Chamber

FFF • Dual IDEX • For Flexible Materials up to Shore Hardness 70A • Enclosed Build Chamber

Industrial and Professional 3D Printers for Prototyping and Production

Raise3D industrial and professional 3D printers help engineering and manufacturing teams move from prototypes to production with enclosed desktop, commercial, and large-format systems. Choose FFF printers with dual extruders or independent dual extruders for engineering thermoplastics, flexible materials, composites, and manufacturing tools; DLP resin systems for fine details and smooth surfaces; or SLS technology for complex, support-free batch parts. From product development and jigs and fixtures to tooling and low-volume end-use production, Raise3D combines printers, materials, software, post-processing, and support in a scalable workflow.

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What Do You Need to Produce?

Start with what you need to make. Whether you are validating a new concept, testing product performance, improving manufacturing operations, creating production tooling, or producing customized end-use parts, Raise3D helps you find the right 3D printing solution for your application.

Concept & Form Prototypes

Validate appearance, dimensions, proportions, ergonomics, and assembly during early product development. These parts support concept reviews and checks for fit, clearance, interference, and assembly sequence; they do not normally need to reproduce final-material performance.

Typical uses: visual review, concept confirmation, dimensional checks, ergonomic evaluation, and assembly validation
Typical parts: housings, structural mockups, display models, and assembly samples

Functional Prototypes

Test form, fit, function, structure, and critical performance using prototypes that reproduce important features of the final product. Testing may include drop, load, impact, motion, durability, or repeated assembly tests. Performance depends on the material, process, orientation, and part design and should not automatically be treated as equivalent to a production part.

Typical uses: functional validation, structural testing, drop testing, load testing, motion testing, and assembly testing
Typical parts: functional housings, snap fits, connectors, mechanical assemblies, and test units

Jigs, Fixtures & Manufacturing Aids

Produce manufacturing aids quickly for assembly, welding, inspection, factory automation, and flexible production lines. The primary value is shorter tooling lead time, faster line changeover, lower cost, and easier continuous improvement in high-mix or low-volume production.

Typical uses: welding location, assembly holding, drilling guides, inspection fixtures, robotic end-of-arm tooling, changeover, and error proofing
Typical parts: welding fixtures, assembly fixtures, gauges, locating tools, soft jaws, and custom brackets

Tooling, Molds & Forming Aids

Create tools, molds, patterns, and process aids used directly or indirectly in forming operations. Applications may include casting patterns, composite layup tools, autoclave tooling, vacuum forming, and silicone molding. Material and process selection should account for temperature, pressure, surface quality, accuracy, and required service life.

Typical uses: casting, composite layup, autoclave processing, vacuum forming, silicone molding, and other forming processes
Typical parts: casting patterns, sand molds or cores, layup tools, autoclave molds, forming tools, and locating aids

Low-Volume & Customized End-Use Parts

Manufacture parts intended for actual use rather than presentation or testing. This path is suitable when conventional tooling is uneconomical, volumes are low, designs change frequently, or every product requires customization. Parts must still meet the strength, safety, durability, quality, and regulatory requirements of their applications.

Typical uses: low-volume production, on-demand spares, personalized products, unusual sizes, and complex geometries
Typical parts: prosthetic and orthotic components, custom lighting, personalized housings, specialized brackets, and replacement parts

In-House vs. Outsourced 3D Printing

Choosing an industrial 3D printing solution is more complex than matching an application, material, or part size to a printer. Customers first need to decide whether to invest in in-house printing, use print service, or combine both approaches. The right path depends on budget, demand frequency, lead time, internal capabilities, confidentiality, and the strategic importance of additive manufacturing.

Compare FFF, DLP, and SLS 3D Printing

Different parts require different 3D printing processes. Compare FFF, DLP, and SLS to find the right balance of part size, material performance, detail, production volume, post-processing, and operating requirements for your application.

Which 3D Printer is Right for You?

FAQ

Raise3D offers professional and industrial 3D printing solutions based on FFF, DLP/resin, and SLS technologies. The portfolio supports applications ranging from concept models and functional prototypes to jigs and fixtures, tooling, customized products, and low-volume end-use parts. Customers can compare systems by application, material, build size, detail, throughput, workflow, and investment level.

Start with what you need to produce and how the part must perform. Define the part size, material properties, accuracy, surface finish, quantity, lead time, post-processing, and budget. Raise3D professional systems are suited to accessible in-house prototyping and production, while industrial systems are designed for more demanding materials, throughput, batch production, or factory workflows. Use the product comparison tool or speak with a Raise3D expert to narrow the options.

Raise3D FFF printers use filament and are commonly selected for functional prototypes, engineering materials, larger parts, manufacturing tools, and some end-use applications. DLP/resin systems are suited to fine details, smooth surfaces, and precision parts. SLS systems use polymer powder to produce complex, support-free parts and efficient batches. The best process depends on the part and production requirements rather than on a single specification.

Raise3D professional 3D printers are designed for engineering teams, design departments, laboratories, educators, and small production environments that need flexible deployment and a broad range of applications. Raise3D industrial 3D printers address requirements such as higher throughput, larger-format or batch production, advanced materials, process consistency, and integration into production workflows. Industrial projects may also include application assessment, installation, training, and service planning.

For FFF printing, the portfolio includes professional systems such as the Pro3 HS Series and E3, as well as industrial solutions such as the RMF500. The DF2+ solution supports DLP/resin workflows, while the RMS220 is designed for SLS production. Product availability and configuration may vary by region, so compare the current product specifications or contact Raise3D for a recommendation.

Material compatibility depends on the printer and technology. Raise3D solutions support options across standard polymers, engineering filaments, flexible materials, fiber-reinforced composites, photopolymer resins, and SLS powders. Select materials according to mechanical strength, stiffness, heat resistance, chemical resistance, surface quality, dimensional requirements, and application environment. Always confirm compatibility and validated printing parameters for the selected system.

Yes. Raise3D printers can be used for functional prototypes, manufacturing aids, tooling, replacement parts, customized products, and selected end-use applications. Final performance depends on the technology, material, part design, print orientation, process settings, post-processing, and quality requirements. Critical parts should be validated under representative operating conditions before production use.

Raise3D printers work with ideaMaker, Raise3D’s slicing software for preparing models, configuring print settings, and managing print profiles. Available workflow and printer-management capabilities depend on the selected system. When comparing printers, consider the complete workflow—including file preparation, material profiles, job management, monitoring, post-processing, and multi-printer operation—not only the hardware.

Pricing depends on the printer, region, configuration, accessories, materials, post-processing equipment, installation, training, and service requirements. Some professional 3D printers may be available with online pricing or direct purchase, while industrial systems are usually quoted according to the application and solution scope. Compare total cost of ownership and cost per qualified part, not only the initial equipment price.

Yes. Compare Raise3D 3D printers by printing technology, build volume, supported materials, application, accuracy, surface finish, throughput, post-processing, operating requirements, and purchase path. A useful comparison should explain why each model is the better fit for a specific task—not simply list technical specifications.

Yes. A representative sample is one of the best ways to evaluate material performance, feature detail, surface quality, dimensional results, and workflow requirements. Prepare the 3D model, intended use, dimensions, material and performance requirements, tolerances, quantity, and target lead time. Raise3D or a local partner can use this information to recommend a printer, technology, material, or service path.

Support varies by product and region and may include application guidance, installation, operator training, workflow setup, maintenance, troubleshooting, warranty or service plans, spare parts, and local technical assistance. Before purchasing, confirm what is included, available response channels, service coverage, and whether support is provided directly by Raise3D or an authorized local partner.

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Industrial and Professional 3D Printers for Prototyping and Production