
Stratasys
Stratasys Origin® Two
P3 photopolymer 3D printing system for selected applications where accuracy, material route, workflow, and production requirements need to be reviewed.
View system: Stratasys Origin® TwoApplication
End-use parts need a manufacturing route that fits the part's duty, interfaces, material exposure, quantity, and inspection requirements. D2M helps buyers review additive manufacturing and conventional options before moving a functional component toward production use.
Review Hardware RoutesApplication overview
End-use parts need a manufacturing route that fits the part's duty, interfaces, material exposure, quantity, and inspection requirements. D2M helps buyers review additive manufacturing and conventional options before moving a functional component toward production use. The review focuses on the buyer’s actual part, workflow, and decision criteria so the recommendation stays specific rather than process-led.
The search intent behind this application is practical: the visitor wants help with deciding whether a cover, bracket, housing, duct, connector, seal, or other part is a realistic candidate for additive production. D2M's role is to connect that need with a route that can be quoted, trialed, inspected, or rejected with clear reasons.
The most relevant route is usually polymer and metal additive manufacturing, material selection, finishing, and inspection planning. For this page, D2M uses linked context such as Addigy® PA6/66-GF20 FR LS, Aluminum Metal Powder, Digital ABS Plus and LOCTITE® 3D 3172™ High Impact and FDM®, Metal, PolyJet™ and P3™ DLP as a starting point for discussion. Stratasys and XACT Metal may be relevant where the application needs a specific scanner, printer, material platform, or software workflow. The final route still depends on the part, quantity, material behavior, operating environment, finishing steps, and inspection expectations.
For end-Use Parts, D2M reviews load, temperature, chemicals, UV exposure, fire or smoke expectations, tolerances, fastening, sealing, inserts, finishing, batch size, and inspection. FDM, SAF, SLA, P3 DLP, PolyJet, or metal AM may each have a place, but only when the application requirements match the process strengths.
Regional context matters because GCC clients often balance local response time, imported-part availability, operator training, production approvals, and supplier capability. Industrial Manufacturing, Aerospace, Automotive and Medical – Anatomical / Surgical Models may use end-Use Parts for different reasons, so D2M keeps the discussion tied to the user's asset, product, tool, or workflow rather than applying a generic process recommendation.
The output should be tied to a defined decision: trial fit, visual approval, dimensional comparison, operator feedback, training value, repeat order planning, or a documented reason to stay with the current manufacturing method. This keeps the page commercial and useful for the buyer instead of turning it into a generic capability checklist.
D2M keeps the recommendation grounded in the evidence available for the application. Do not state material performance, release status, or replacement of molded or machined parts without review and testing. Cost, lead time, release status, and material performance depend on the details and should be confirmed through review, testing, supplier documentation, and the client's own approval route where needed.
A useful first conversation includes CAD or sample part, quantity, load and environment, mating parts, surface finish, tolerance needs, existing cost or lead time, and approval route. Photos, failed parts, previous inspection reports, or examples of the current process can shorten the review because they show the constraint behind the request. From there, D2M can suggest a route for trial, quotation, inspection planning, or further engineering work.

Stratasys
P3 photopolymer 3D printing system for selected applications where accuracy, material route, workflow, and production requirements need to be reviewed.
View system: Stratasys Origin® Two
Stratasys
Glass-filled nylon copolymer for applications where flame, smoke, thermal, and mechanical requirements need to be checked against OEM material documentation.
View system: Addigy® PA6/66-GF20 FR LS
XACT Metal
Material route for application and process review.
View system: Aluminum Metal Powder
Stratasys
A tough, heat-resistant PolyJet material for durable parts, tooling, and fixtures requiring high impact resistance and thermal stability.
View system: Digital ABS Plus

Stratasys
Produce exceptionally strong and tough parts, tooling, and functional prototypes with this durable, impact-resistant FDM thermoplastic.
View system: Nylon 6
Stratasys
A carbon fiber-reinforced nylon offering a superior combination of stiffness, strength, and light weight for functional prototypes, tooling, and production parts.
View system: Nylon-CF10
Stratasys
An impact-resistant material for producing durable, high-precision parts and tooling with an excellent surface finish and dimensional stability.
View system: LOCTITE® 3D 3172™ High Impact
Stratasys
A rigid, electrostatic dissipative (ESD) material for producing strong, dimensionally stable functional parts with an excellent surface finish.
View system: LOCTITE® 3D IND3380™ ESD
Stratasys
A rigid, high-strength resin for durable, high-precision parts and tooling with excellent surface finish and moderate thermal stability.
View system: LOCTITE® 3D IND403™ High Modulus
XACT Metal
Material route for application and process review.
View system: Nickel Metal Powder
Stratasys
A flexible selection of advanced photopolymers enabling specialized applications, from prototyping and tooling to production and research on the Origin One.
View system: Origin® Open Materials

Stratasys
Material route for application and process review.
View system: Polycarbonate (PC)
Stratasys
Material route for application and process review.
View system: Polyphenylsulfone (PPSU/PPSF)
Stratasys
Material route for application and process review.
View system: PA11 (Nylon 11)
Stratasys
Material route for application and process review.
View system: PA12 (Nylon 12)
Stratasys
Durable, rigid SLA material for functional parts with thermoplastic-like performance, strength, and a smooth surface finish.
View system: Somos® NeXt™
Stratasys
Material route for application and process review.
View system: Somos® Taurus™
XACT Metal
Material route for application and process review.
View system: Titanium Metal Powder
Stratasys
Material route for application and process review.
View system: ULTEM™ 1010 Resin
Stratasys
Material route for application and process review.
View system: ULTEM™ 9085 Resin
Stratasys
A transparent, biocompatible material for 3D printing medical devices, dental models, and wearables requiring safe skin or mucosal contact.
View system: Vero™ContactClear
Stratasys
Material route for application and process review.
View system: VICTREX AM™ 200Evidence

Technical paper
A technical evaluation of ABS-ESD7 FDM parts, reviewing measured electrical resistance across selected printers, orientations, geometries, and build conditions.
Read technical paper: ABS-ESD7 Electrical Performance in FDM Parts
Technical paper
Review how manufacturers evaluate FDM 3D printing for jigs, fixtures, and manufacturing aids by comparing application need, material route, workflow, and production constraints.
Read technical paper: Jigs and Fixtures: Evaluating FDM for Manufacturing Aids
Technical paper
Review how manufacturers evaluate FDM 3D printing for selected end-use parts by assessing material route, application risk, qualification effort, inspection needs, and production workflow.
Read technical paper: End-Use Parts: Evaluating FDM Additive Manufacturing
Technical paper
Review how one product development firm evaluated industrial FDM within its design workflow, including turnaround time, project capacity, in-house prototyping, and reported payback period.
Read technical paper: Industrial 3D Printing Business Case for Design Workflows
Decision guide
Printed threads, tapped holes, thread-forming screws and metal inserts can all work in production parts. The right choice depends on load, material, process and how often the joint will be opened.
Read decision guide: 3D-Printed Threads or Metal Inserts? Designing Parts for Repeated Assembly
Decision guide
An ESD-capable material does not define the finished printed part. Electrical requirements, manufacturing route, interfaces and verification still need to be considered for components used around sensitive electronics.
Read decision guide: Using 3D-Printed Parts Around Sensitive Electronics: ESD Is More Than a Material Choice
Decision guide
The first production cell should be built around a real part family, not a general ambition to bring additive manufacturing in-house. Once the part family is clear, the machine choice, qualification evidence, inspection route, supplier model, and utilisation case become much easier to judge.
Read decision guide: First AM Production Cell: Start With the Part Family Before Buying the Machine
Decision guide
How to assess polymer additive manufacturing for robotic end-of-arm tooling, including payload, stiffness, contact surfaces, grip reliability and replacement control.
Read decision guide: Robotic end-of-arm tooling: when polymer additive manufacturing reduces changeover riskNext step
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