A Stratasys 3D printer is an industrial additive manufacturing system designed to help businesses transform digital designs into physical parts, prototypes, and production components. These printers support applications ranging from product development and engineering validation to manufacturing tooling and end-use part production.
With multiple printing technologies, material options, and machine configurations, Stratasys provides solutions for industries that require reliable, repeatable, and application-specific 3D printing capabilities.
Whether a business needs durable functional prototypes, detailed visual models, or production-ready components, understanding the available Stratasys 3D printer technologies can help identify the right solution for its manufacturing requirements.
Table of Contents
What Is a Stratasys 3D Printer?
A Stratasys 3D printer uses additive manufacturing to build three-dimensional objects from digital design files. Instead of removing material from a solid block, the printer creates parts through a process that adds material layer by layer. Modern manufacturing also relies on digital tools and connected platforms, making it useful to understand how socials and software fit into modern workflows.
Depending on the printer and technology, the system may use thermoplastic filament, liquid photopolymer resin, or polymer powder to manufacture components with different mechanical properties and surface finishes.
Stratasys develops industrial and professional 3D printing systems for applications such as:
- Rapid prototyping and product development
- Functional testing and design validation
- Manufacturing jigs, fixtures, and tooling
- Low-volume production
- Detailed visual models and full-color prototypes
- Medical, dental, and specialized industrial applications
The appropriate printer depends on factors such as material requirements, dimensional accuracy, production volume, part geometry, and intended use.
Major Stratasys 3D Printing Technologies
Stratasys offers several additive manufacturing technologies, each designed to address different production and design challenges. Understanding their capabilities is an important step when comparing industrial 3D printers.
1. FDM Technology
Fused Deposition Modeling (FDM) builds parts by extruding thermoplastic material through a heated nozzle. The material is deposited in successive layers until the component reaches its intended shape.
Stratasys FDM printers are commonly used for functional prototypes, manufacturing aids, tooling, and selected end-use components.
Key benefits include:
- Durable thermoplastic material options
- Production of large functional components
- Support for engineering-grade materials
- Applications in manufacturing, aerospace, and automotive industries
- Ability to produce customized jigs and fixtures
The Stratasys F900 is one example of an industrial FDM printer. Its build volume measures approximately 914 × 610 × 914 mm, making it suitable for large components and batch production within its specified operating capabilities.
Businesses evaluating an FDM printer should consider mechanical requirements, operating costs, material compatibility, and the level of dimensional accuracy required for their parts.
2. PolyJet Technology
PolyJet is a photopolymer-based 3D printing technology that jets liquid photopolymer materials onto a build surface and cures them using ultraviolet light.
This process supports detailed models, smooth surface finishes, and combinations of different material properties. Depending on the printer and compatible materials, PolyJet systems can also produce full-color models and parts with transparent or flexible features.
Common applications include:
- Product design and concept modeling
- Visual prototypes for presentations
- Detailed product appearance models
- Medical and dental models
- Multi-material prototype development
PolyJet is particularly useful when appearance, fine details, and material combinations are important to the design process.
For example, a product development team can use a compatible PolyJet system to evaluate the appearance and feel of a proposed product before investing in production tooling.
3. SAF Technology
Selective Absorption Fusion (SAF) is a powder-bed fusion technology designed for polymer part production.
Stratasys SAF systems are intended for applications that require consistent parts and efficient production across multiple components. They can be relevant to businesses evaluating additive manufacturing for higher-volume polymer production.
Potential applications include:
- Functional plastic components
- Repeatable production batches
- Complex polymer geometries
- Customized parts
- Selected end-use manufacturing applications
SAF may be appropriate when production throughput and consistent part quality are important considerations.
However, the actual economics depend on production volume, part geometry, material selection, post-processing, and machine utilization.
4. SLA Technology
Stereolithography (SLA) uses a light source to cure liquid photopolymer resin into solid layers.
Stratasys Neo stereolithography systems are designed for applications that require detailed parts and suitable surface quality.
Typical applications include:
- Concept and functional prototyping
- Wind tunnel models
- Investment casting patterns
- Composite tooling
- Fluid-flow testing models
SLA can be a useful option for applications that prioritize surface finish and detailed geometry.
When choosing an SLA printer, businesses should assess resin properties, component size, post-processing requirements, and the environmental conditions in which the finished part will be used.
5. P3 DLP Technology
P3 Digital Light Processing (DLP) is a photopolymer-based technology designed for industrial prototyping and production applications.
Stratasys Origin systems use P3 technology to produce detailed components from compatible photopolymer materials.
Potential applications include:
- Functional prototypes
- Small and medium production runs
- Complex component geometries
- Specialized industrial parts
- Applications requiring carefully controlled surface quality
P3 DLP can be worth evaluating when a business needs detailed polymer parts and material properties suited to a specific engineering application.
The final selection should depend on the required mechanical performance, production quantity, dimensional requirements, and compatible materials.
Popular Stratasys 3D Printer Models
Stratasys offers different printer models for industrial manufacturing, engineering, product development, and specialized applications. Rather than selecting a machine based on brand name alone, buyers should match its capabilities to their intended workload.
Stratasys F900
The F900 is a large-format industrial FDM printer designed for demanding manufacturing environments.
Its approximate build volume of 914 × 610 × 914 mm supports the production of large components and multiple smaller parts within the same build space, depending on their arrangement.
Typical applications include manufacturing tooling, functional prototypes, production aids, and selected low-volume production components.
It may be suitable for manufacturers that require a large build area and compatible engineering-grade thermoplastics.
Stratasys Fortus 450mc
The Fortus 450mc is an industrial FDM system intended for engineering and manufacturing applications.
It can be considered for functional prototyping, tooling, and the production of components using supported thermoplastic materials.
Businesses evaluating this printer should compare its build capacity, compatible materials, dimensional requirements, and operating costs against their specific production needs.
Stratasys F770
The F770 is a large-format FDM printer designed for producing larger parts and supporting manufacturing workflows.
It may be useful for businesses that need to manufacture large prototypes, fixtures, and other functional components without dividing every design into smaller printed sections.
Its suitability depends on the component dimensions, required material properties, and application-specific performance criteria.
Stratasys J850 Series
The J850 printer family uses PolyJet technology and includes systems designed for detailed visual modeling and specialized applications.
Depending on the specific model, compatible materials, and software configuration, these systems can support full-color prototypes, multi-material parts, and detailed product models.
They are particularly relevant to design teams that need to evaluate product appearance, material combinations, and design concepts before final production.
Stratasys H350
The H350 is a powder-based SAF 3D printing system intended for polymer part production.
It is worth considering for manufacturing operations that require consistent components across production batches.
Before selecting this system, buyers should evaluate production volume, powder and material requirements, part design, post-processing, and the expected cost per finished component.
Industrial Applications of Stratasys 3D Printers
Industrial 3D printing can support different stages of the product lifecycle, from early-stage design to selected manufacturing operations.
Aerospace and Automotive Manufacturing
Aerospace and automotive manufacturers can use industrial 3D printers to develop prototypes, produce manufacturing aids, and create selected functional components.
FDM systems can be useful for compatible engineering plastics and tooling applications. However, parts intended for safety-critical or regulated environments must meet the relevant qualification and performance requirements.
Product Design and Rapid Prototyping
Design teams can use 3D printing to convert CAD models into physical prototypes for evaluation.
This approach can help identify design problems earlier, test component fit, and refine product geometry before committing to more expensive production processes.
PolyJet may be suitable for appearance-focused prototypes, while FDM and other technologies can support functional testing when the selected materials meet the required performance criteria.
Manufacturing Tooling and Fixtures
Manufacturing facilities often require customized fixtures, positioning aids, and tools for repetitive production tasks.
A compatible industrial 3D printer can produce these items on demand, potentially reducing dependence on conventional tooling suppliers and shortening development cycles.
The potential savings depend on design complexity, material costs, print time, labor, and the cost of alternative manufacturing methods.
Medical and Dental Applications
Certain Stratasys systems support specialized medical and dental workflows.
Depending on the printer, material, and intended application, these systems can produce dental models, anatomical models, and other specialized components.
Medical and dental applications require particular attention to material compatibility, workflow validation, regulatory requirements, and intended use.
Low-Volume Production
Additive manufacturing can provide an alternative to conventional production methods when demand is limited, parts are highly customized, or tooling costs would be difficult to justify.
The right Stratasys 3D printer may help businesses produce selected end-use parts without creating dedicated molds for every design.
However, additive manufacturing is not automatically more economical than injection molding or other conventional processes. Production volume, material consumption, cycle time, and post-processing must all be considered.
Benefits of Using a Stratasys 3D Printer
Selecting an appropriate Stratasys 3D printer can offer several potential advantages for engineering and manufacturing teams.
Faster product development: Physical prototypes can help teams evaluate designs before moving to more expensive production stages.
Design flexibility: Additive manufacturing can produce complex geometries and customized components that may be difficult or expensive to manufacture using conventional methods.
Material selection: Different Stratasys technologies support different material families, allowing businesses to choose options based on their applications.
On-demand production: Selected components, prototypes, and manufacturing aids can be produced when required, potentially reducing the need to maintain large inventories.
Manufacturing support: Printed jigs, fixtures, and tooling can help improve workflow flexibility and support specific production requirements.
Application-specific solutions: The range of available technologies allows businesses to select systems based on their needs for detail, mechanical performance, production volume, or part size.
The actual benefits depend on the application, printer configuration, operator expertise, and production workflow.
How to Choose the Right Stratasys 3D Printer
Choosing an industrial 3D printer requires more than comparing machine specifications. Businesses should evaluate the entire production process, including design preparation, material handling, printing, finishing, and quality control.
Define Your Application
Start by identifying what you intend to manufacture. A printer used for detailed visual models may require different capabilities from one used for functional tooling or production components.
Clearly defining the application makes it easier to narrow down the available technologies.
Evaluate Material Requirements
Material selection affects strength, flexibility, temperature resistance, surface finish, and other important properties.
Review the manufacturer’s specifications to ensure the chosen printer supports a material suitable for the intended operating conditions.
Compare Build Volume
The printer’s build volume determines the maximum dimensions of a component that can fit within a single build, subject to the system’s configuration and other constraints.
Large-format systems may be appropriate for substantial tooling or prototypes, while smaller machines may be sufficient for compact parts and specialized workflows.
Consider Production Volume
Estimate how many components you expect to produce and how frequently the machine will operate.
For example, an FDM printer may be appropriate for functional prototypes and tooling, while a SAF system may be worth evaluating for suitable polymer production batches.
The most economical option depends on the complete manufacturing workflow rather than print speed alone.
Calculate the Total Cost of Ownership
The purchase price is only one part of the investment.
Consider the following expenses:
- Materials and consumables
- Installation and training
- Maintenance and servicing
- Software and workflow requirements
- Electricity and facility requirements
- Labor and post-processing
- Downtime and quality control
Comparing these costs can help businesses estimate the long-term financial implications of purchasing and operating an industrial 3D printer.
Stratasys 3D Printer Price and Ownership Costs
The price of a Stratasys 3D printer varies according to the model, technology, configuration, materials, software, and service requirements.
Industrial systems can involve a substantial investment beyond the printer itself. For this reason, businesses should request a model-specific quotation rather than relying on a single price estimate for the entire product range.
When evaluating a quotation, review the included equipment, software, material packages, installation services, warranty, and ongoing maintenance costs.
It is also important to compare the cost per usable part rather than focusing exclusively on the initial purchase price. A system with a higher upfront cost may be appropriate for a particular production requirement, while a different technology may provide better economics for another application.
For accurate model information and purchasing guidance, consult the official Stratasys printer catalog and request a quotation based on your production needs.
Conclusion
A Stratasys 3D printer can support industrial product development, functional prototyping, manufacturing tooling, and selected production applications.
The company’s range of technologies provides different options for businesses that need durable thermoplastic components, detailed multi-material models, polymer production parts, or specialized photopolymer components.
The best choice depends on the intended application, required material properties, build volume, production quantity, and total cost of ownership.
By comparing these factors before making a purchase, businesses can identify a Stratasys 3D printing solution that aligns with their technical requirements and manufacturing objectives.
