FROM CONCEPTS TO DELIVERED PARTS

THE FULL ADDITIVE MANUFACTURING LIFECYCLE IN ONE ISO-CERTIFIED DUBAI FACILITY — HP MULTI JECT FUSION,
SLA, FDM, AND URETHANE CASTING.

FROM CONCEPTS TO DELIVERED PARTS

THE FULL ADDITIVE MANUFACTURING LIFECYCLE IN ONE ISO-CERTIFIED DUBAI FACILITY — HP MULTI JET FUSION, SLA, FDM, AND URETHANE CASTING.

EIGHT SERVICES. ONE FACILITY.

3DX provides end-to-end additive manufacturing for engineering teams that need real components — prototypes, end-use parts, and digital inventory —
with the mechanical properties to perform in the field, not just on a desk. Each service runs on HP Multi Jet Fusion as our primary process, complemented by
SLA, FDM, and urethane casting for the geometries, finishes, and batch sizes they handle best.

EIGHT SERVICES. ONE FACILITY.

3DX provides end-to-end additive manufacturing for engineering teams that need real components — prototypes, end-use parts, and digital inventory — with the mechanical properties to perform in the field, not just on a desk. Each service runs on HP Multi Jet Fusion as our primary process, complemented by SLA, FDM, and urethane casting for the geometries, finishes, and batch sizes they handle best.

RAPID PROTOTYPING

From STL upload to delivered part in 48 hours.

Iterate weekly instead of quarterly.

Rapid prototyping is the discipline of converting a digital design into a physical part fast enough to keep the engineering iteration loop alive. We produce prototypes
in PA12, PA12-GB, TPU, and SLA resin on HP Multi Jet Fusion and SLA systems — same-day quoting, typically 48-hour turnaround on standard MJF..
  • You need a physical part this week, not next month
  • Design iteration cost must stay low
  • The prototype is for review, fit-checking, or early validation
  • Geometry is complex enough that machining is uneconomical

Rapid Prototyping with 3D Printing

Turn digital designs into physical parts in hours, not weeks — iterating faster, spending less, and de-risking development from day one.

Speed & Cost Efficiency

Same-day parts from finalized CAD files enable continuous iteration. No tooling means one prototype or ten variations costs the same, stretching every budget further.

Design & Testing Freedom

Engineering-grade materials support real-world validation of strength, fit, and ergonomics. Complex geometries and organic shapes print as easily as simple ones, enabling optimized, integrated parts.

Built for the UAE & Saudi Arabia

Local on-demand services eliminate overseas delays, keeping your innovation pipeline moving. Physical prototypes also accelerate stakeholder approvals and surface marketability issues early.

RAPID PROTOTYPING

From STL upload to delivered part in 48 hours.

Iterate weekly instead of quarterly.

Rapid prototyping is the discipline of converting a digital design into a physical part fast enough to keep the engineering iteration loop alive.
We produce prototypes in PA12, PA12-GB, TPU, and SLA resin on HP Multi Jet Fusion and SLA systems — same-day quoting, typically 48-hour turnaround on standard MJF.
  • You need a physical part this week, not next month
  • Design iteration cost must stay low
  • The prototype is for review, fit-checking, or early validation
  • Geometry is complex enough that machining is uneconomical

Rapid Prototyping with 3D Printing

Turn digital designs into physical parts in hours, not weeks — iterating faster, spending less, and de-risking development from day one.

Speed & Cost Efficiency

Same-day parts from finalized CAD files enable continuous iteration. No tooling means one prototype or ten variations costs the same, stretching every budget further.

Design & Testing Freedom

Engineering-grade materials support real-world validation of strength, fit, and ergonomics. Complex geometries and organic shapes print as easily as simple ones, enabling optimized, integrated parts.

Built for the UAE & Saudi Arabia

Local on-demand services eliminate overseas delays, keeping your innovation pipeline moving. Physical prototypes also accelerate stakeholder approvals and surface marketability issues early.

LOW VOLUME PRODUCTION

End-use parts in batches of 10 to 10,000+, without
injection-mold tooling.

Fully post-processed: dyeing, smoothing, painting, assembly, packaging — all in-house.

Injection molding makes sense at high volumes — but only after you have paid for the tooling, qualified the supplier, and committed to a single geometry. For product
launches, regulated industries, customized variants, and long-tail SKUs, low-volume additive production removes the tooling tax entirely.
  • Tooling cost cannot be justified for the volume
  • Geometry changes frequently between batches
  • Multiple variants must run alongside each other
  • You need parts faster than injection molding can deliver

Low Volume Production with 3D Printing

Bridge the gap between prototyping and mass production — manufacturing end-use parts on demand, without tooling costs or long lead times.

No Tooling, No Minimums

Start production directly from digital files, making runs of one to thousands equally viable. This eliminates upfront capital expenditure and accelerates time-to-revenue.

Customization & Digital Inventory

Each part can be uniquely tailored — from medical devices to bespoke components — at no added cost. Replace physical stockrooms with a digital library, printing parts on demand to eliminate obsolescence and storage overhead.

Complex Parts & Local Production (UAE & GCC)

3D printing produces lightweight, topology-optimized parts with internal lattices and integrated features impossible through traditional methods. For UAE and GCC businesses, this means critical components manufactured onshore — reducing supply chain dependency and cutting lead times from weeks to days.

A Bridge to Mass Production

Validate demand with pilot batches, gather real-world feedback, and refine designs before committing to expensive tooling — entering mass production with a proven, optimized product.

LOW VOLUME PRODUCTION

End-use parts in batches of 10 to 10,000+, without
injection-mold tooling.

Fully post-processed: dyeing, smoothing, painting, assembly, packaging — all in-house.

Injection molding makes sense at high volumes — but only after you have paid for the tooling, qualified the supplier,
and committed to a single geometry. For product launches, regulated industries, customized variants, and long-tail SKUs,
low-volume additive production removes the tooling tax entirely.
  • Tooling cost cannot be justified for the volume
  • Geometry changes frequently between batches
  • Multiple variants must run alongside each other
  • You need parts faster than injection molding can deliver

Low Volume Production with 3D Printing

Bridge the gap between prototyping and mass production — manufacturing end-use parts on demand, without tooling costs or long lead times.

No Tooling, No Minimums

Start production directly from digital files, making runs of one to thousands equally viable. This eliminates upfront capital expenditure and accelerates time-to-revenue.

Customization & Digital Inventory

Each part can be uniquely tailored — from medical devices to bespoke components — at no added cost. Replace physical stockrooms with a digital library, printing parts on demand to eliminate obsolescence and storage overhead.

Complex Parts & Local Production (UAE & GCC)

3D printing produces lightweight, topology-optimized parts with internal lattices and integrated features impossible through traditional methods. For UAE and GCC businesses, this means critical components manufactured onshore — reducing supply chain dependency and cutting lead times from weeks to days.

A Bridge to Mass Production

Validate demand with pilot batches, gather real-world feedback, and refine designs before committing to expensive tooling — entering mass production with a proven, optimized product.

3D DESIGN

Print-ready CAD from a sketch, brief, or legacy part.

Design for Additive Manufacturing is its own discipline.

Designing for additive is not the same as designing for machining or molding. Different rules apply: undercuts are free, complex internal geometries are routine, part
consolidation reduces assembly steps, lattice infill replaces mass with engineered structure.
  • You have an idea but not a CAD model
  • Your existing part was designed for a different manufacturing process
  • Weight reduction or part consolidation is critical
  • A multi-component assembly should become a single print
 

3D Design for Additive Manufacturing

Great 3D printing starts with great design. Mastering Design for Additive Manufacturing (DfAM) unlocks geometries, efficiencies, and innovations impossible with traditional methods.

Design Freedom & Optimization

DfAM enables organic shapes, internal channels, and hollow structures freed from the constraints of milling or molding. Topology optimization algorithms then distribute material intelligently — delivering maximum strength at minimum weight, critical for aerospace, automotive, and robotics.

Smarter Parts, Fewer Components

Multiple assemblies can be consolidated into a single print, eliminating fasteners, joints, and failure points. Internal lattices, conformal cooling channels, and embedded fluidic pathways — unmachineable by conventional means — are manufactured with ease, improving performance from the inside out.

Fast Iteration & Expert Support

The digital workflow enables rapid cycles: design, print, refine, repeat — in hours, not weeks. And for those without CAD expertise, our team provides full design support, from sketch to print-ready file, including model optimization and reverse engineering.

3D DESIGN

Print-ready CAD from a sketch, brief,
or legacy part.

Design for Additive Manufacturing is its own discipline.

Designing for additive is not the same as designing for machining or molding. Different rules apply: undercuts are free,
complex internal geometries are routine, part consolidation reduces assembly steps, lattice infill replaces mass with
engineered structure.
  • You have an idea but not a CAD model
  • Your existing part was designed for a different manufacturing process
  • Weight reduction or part consolidation is critical
  • A multi-component assembly should become a single print
 

3D Design for Additive Manufacturing

Great 3D printing starts with great design. Mastering Design for Additive Manufacturing (DfAM) unlocks geometries, efficiencies, and innovations impossible with traditional methods.

Design Freedom & Optimization

DfAM enables organic shapes, internal channels, and hollow structures freed from the constraints of milling or molding. Topology optimization algorithms then distribute material intelligently — delivering maximum strength at minimum weight, critical for aerospace, automotive, and robotics.

Smarter Parts, Fewer Components

Multiple assemblies can be consolidated into a single print, eliminating fasteners, joints, and failure points. Internal lattices, conformal cooling channels, and embedded fluidic pathways — unmachineable by conventional means — are manufactured with ease, improving performance from the inside out.

Fast Iteration & Expert Support

The digital workflow enables rapid cycles: design, print, refine, repeat — in hours, not weeks. And for those without CAD expertise, our team provides full design support, from sketch to print-ready file, including model optimization and reverse engineering.

FUNCTIONAL PROTOTYPING

Prototypes that survive real testing.

Engineering-grade materials, production-equivalent accuracy.

Rapid prototyping validates form and fit. Functional prototyping validates performance — whether the part survives the load, the heat cycle,
the vibration profile, the assembly torque, or the chemical exposure it will encounter in production.
  • The prototype must perform under real loads or environments
  • Mechanical or thermal testing is part of validation
  • Production-tooling investment depends on test results
  • Geometric fidelity must match the future production part

Functional Prototyping with 3D Printing

Go beyond visual models — functional prototypes validate real-world performance, subjecting parts to stress, heat, chemical exposure, and assembly checks before costly tooling begins.

True Performance Validation

Functional prototypes are working models tested under end-use conditions — assessing mechanical strength, kinematic movement, seals, and ergonomics. Form, fit, and function are validated simultaneously in a single, high-fidelity part.

Engineering-Grade Materials & Failure Analysis

A broad material portfolio — from impact-resistant thermoplastics and high-temperature resins to metal alloys — closely matches production-intent properties. Rapid iteration enables deliberate failure testing, identifying weak points early and preventing costly recalls or redesigns down the line.

Compliance, Certification & Local Production (UAE)

Functional prototypes support early-stage regulatory testing for aerospace, medical, and automotive certifications. For UAE industries including oil & gas and construction, on-demand local prototyping reduces reliance on international suppliers and accelerates innovation cycles.

FUNCTIONAL PROTOTYPING

Prototypes that survive real testing.

Engineering-grade materials, production-equivalent accuracy.

Rapid prototyping validates form and fit. Functional prototyping validates performance — whether the part survives
the load, the heat cycle, the vibration profile, the assembly torque, or the chemical exposure it will encounter in production.
  • The prototype must perform under real loads or environments
  • Mechanical or thermal testing is part of validation
  • Production-tooling investment depends on test results
  • Geometric fidelity must match the future production part

Functional Prototyping with 3D Printing

Go beyond visual models — functional prototypes validate real-world performance, subjecting parts to stress, heat, chemical exposure, and assembly checks before costly tooling begins.

True Performance Validation

Functional prototypes are working models tested under end-use conditions — assessing mechanical strength, kinematic movement, seals, and ergonomics. Form, fit, and function are validated simultaneously in a single, high-fidelity part.

Engineering-Grade Materials & Failure Analysis

A broad material portfolio — from impact-resistant thermoplastics and high-temperature resins to metal alloys — closely matches production-intent properties. Rapid iteration enables deliberate failure testing, identifying weak points early and preventing costly recalls or redesigns down the line.

Compliance, Certification & Local Production (UAE)

Functional prototypes support early-stage regulatory testing for aerospace, medical, and automotive certifications. For UAE industries including oil & gas and construction, on-demand local prototyping reduces reliance on international suppliers and accelerates innovation cycles.

DISPLAY MODELS

High-fidelity physical models from your CAD data.

Architectural visualizations, product mock-ups, exhibition pieces — ready for client presentations or trade shows in days.

Display models exist to be looked at. The geometry must be accurate, the surface finish must be smooth, and the color must match the specification.

  • The model is going to be looked at, not used
  • Surface finish and visual fidelity are critical
  • Color matching to a specification is required
  • You need it before production parts are available

Display Models with 3D Printing

Transform digital concepts into stunning, high-fidelity physical models — perfect for presentations, marketing, trade shows, and client reviews.

Visual Impact & Material Choice

High-resolution printing captures intricate textures, fine logos, and complex geometries directly from CAD data. Materials range from ultra-smooth resins and transparent polymers to full-color sandstone and durable nylon — matching every aesthetic and handling requirement.

Sales, Marketing & Fast Turnaround

Physical models command attention at pitches, trade shows, and crowdfunding campaigns in ways renders simply can’t. Where traditional model-making takes weeks, 3D printing delivers in days — meeting tight deadlines without sacrificing quality.

Affordable Iteration & Local Production (UAE)

Multiple design variations can be produced affordably, enabling precise client feedback before significant investment. For UAE developers, designers, and marketers, local on-demand production supports everything from mega-project showcases to luxury product launches with rapid turnaround.

DISPLAY MODELS

High-fidelity physical models from
your CAD data.

Architectural visualizations, product mock-ups, exhibition pieces — ready for client
presentations or trade shows in days.

Display models exist to be looked at. The geometry must be accurate, the surface finish must be smooth, and the color
must match the specification.
  • The model is going to be looked at, not used
  • Surface finish and visual fidelity are critical
  • Color matching to a specification is required
  • You need it before production parts are available

Display Models with 3D Printing

Transform digital concepts into stunning, high-fidelity physical models — perfect for presentations, marketing, trade shows, and client reviews.

Visual Impact & Material Choice

High-resolution printing captures intricate textures, fine logos, and complex geometries directly from CAD data. Materials range from ultra-smooth resins and transparent polymers to full-color sandstone and durable nylon — matching every aesthetic and handling requirement.

Sales, Marketing & Fast Turnaround

Physical models command attention at pitches, trade shows, and crowdfunding campaigns in ways renders simply can’t. Where traditional model-making takes weeks, 3D printing delivers in days — meeting tight deadlines without sacrificing quality.

Affordable Iteration & Local Production (UAE)

Multiple design variations can be produced affordably, enabling precise client feedback before significant investment. For UAE developers, designers, and marketers, local on-demand production supports everything from mega-project showcases to luxury product launches with rapid turnaround.

REVERSE ENGINEERING

Physical part to parametric CAD.

For replacing obsolete components, documenting undocumented hardware, restoring legacy equipment,
or improving existing designs.

Manufacturers regularly need to reproduce, modify, or document parts for which no CAD model exists — obsolete equipment spares, undocumented
legacy hardware, competitor products under appropriate licensing, restoration projects, or customer parts where the original supplier is gone. We scan the
physical part and rebuild it as production-ready parametric CAD.
  • The original CAD model is lost or was never created
  • The original supplier is no longer available
  • Legacy equipment needs spare parts
  • A physical part must be reproduced for any reason

Reverse Engineering with 3D Scanning

Bridge the physical and digital — capturing the precise geometry of existing parts to create accurate 3D models for reproduction, repair, or improvement.

Legacy Parts & Performance Improvement

Create digital twins of obsolete or blueprint-less components, enabling on-demand replacement and preventing costly downtime. The resulting model can also be analyzed and optimized — improving strength, reducing weight, or enhancing airflow for a next-generation version.

Seamless Fit & Accelerated Development

Reverse engineer mating parts to design perfectly fitting attachments, enclosures, or custom components — from medical prosthetics to industrial fixtures. The same process supports competitive benchmarking, deconstructing design intent and assembly methods to accelerate your own R&D.

Digital Inventory & Local Capability (UAE)

Systematically convert physical spare parts into a secure digital library — print any replacement on demand, eliminating obsolescence and storage costs. For UAE industries from classic car restoration to desalination infrastructure, local reverse engineering capability removes reliance on international supply chains.

REVERSE ENGINEERING

Physical part to parametric CAD.

For replacing obsolete components, documenting undocumented hardware, restoring
legacy equipment, or improving existing designs.

Manufacturers regularly need to reproduce, modify, or document parts for which no CAD model exists — obsolete equipment
spares, undocumented legacy hardware, competitor products under appropriate licensing, restoration projects, or customer
parts where the original supplier is gone. We scan the physical part and rebuild it as production-ready parametric CAD.
  • The original CAD model is lost or was never created
  • The original supplier is no longer available
  • Legacy equipment needs spare parts
  • A physical part must be reproduced for any reason

Reverse Engineering with 3D Scanning

Bridge the physical and digital — capturing the precise geometry of existing parts to create accurate 3D models for reproduction, repair, or improvement.

Legacy Parts & Performance Improvement

Create digital twins of obsolete or blueprint-less components, enabling on-demand replacement and preventing costly downtime. The resulting model can also be analyzed and optimized — improving strength, reducing weight, or enhancing airflow for a next-generation version.

Seamless Fit & Accelerated Development

Reverse engineer mating parts to design perfectly fitting attachments, enclosures, or custom components — from medical prosthetics to industrial fixtures. The same process supports competitive benchmarking, deconstructing design intent and assembly methods to accelerate your own R&D.

Digital Inventory & Local Capability (UAE)

Systematically convert physical spare parts into a secure digital library — print any replacement on demand, eliminating obsolescence and storage costs. For UAE industries from classic car restoration to desalination infrastructure, local reverse engineering capability removes reliance on international supply chains.

DIGITAL WAREHOUSING

Store designs instead of inventory.

Print on demand.

Physical inventory ties up capital, takes up space, depreciates, and becomes obsolete. Digital inventory does none of those things.

  • Inventory carrying cost is significant
  • Obsolescence risk is high
  • Slow-moving SKUs are a problem to forecast
  • Field-service spare parts must be available quickly

Digital Warehousing with 3D Printing

Replace physical stockpiles with secure, cloud-based 3D model files — printing any part on demand, locally and instantly, whenever needed.

Eliminate Storage, Eliminate Obsolescence

Slash warehouse, insurance, and inventory management costs by storing designs instead of objects. Parts no longer supplied by original manufacturers remain permanently available — a critical advantage for legacy systems in aerospace, defense, and heavy industry.

On-Demand Production & Supply Chain Resilience

Any approved part can be retrieved and printed within hours, minimizing downtime and keeping equipment operational. Decentralized production — from remote oil rigs to local service centers — removes dependence on international shipping and insulates operations from global supply chain disruptions.

A Strategic Fit for the UAE

Digital warehousing aligns directly with the UAE’s vision for a smart, resilient economy. By replacing logistics complexity with secure digital transfers, local industries can lead in supply chain innovation — reducing waste, cutting lead times, and building a more sustainable, self-sufficient operation.

DIGITAL WAREHOUSING

Store designs instead of inventory.

Print on demand.

Physical inventory ties up capital, takes up space, depreciates, and becomes obsolete. Digital inventory does none of those things.

  • Inventory carrying cost is significant
  • Obsolescence risk is high
  • Slow-moving SKUs are a problem to forecast
  • Field-service spare parts must be available quickly

Digital Warehousing with 3D Printing

Replace physical stockpiles with secure, cloud-based 3D model files — printing any part on demand, locally and instantly, whenever needed.

Eliminate Storage, Eliminate Obsolescence

Slash warehouse, insurance, and inventory management costs by storing designs instead of objects. Parts no longer supplied by original manufacturers remain permanently available — a critical advantage for legacy systems in aerospace, defense, and heavy industry.

On-Demand Production & Supply Chain Resilience

Any approved part can be retrieved and printed within hours, minimizing downtime and keeping equipment operational. Decentralized production — from remote oil rigs to local service centers — removes dependence on international shipping and insulates operations from global supply chain disruptions.

A Strategic Fit for the UAE

Digital warehousing aligns directly with the UAE’s vision for a smart, resilient economy. By replacing logistics complexity with secure digital transfers, local industries can lead in supply chain innovation — reducing waste, cutting lead times, and building a more sustainable, self-sufficient operation.

URETHANE CASTING

Production-quality cast parts in batches of 10
to 100, without steel tooling.

A bridge between prototyping and injection molding.

MJF is our workhorse for most production work, but it cannot directly deliver every material property. Urethane casting fills that gap: we build a silicone
mold from a 3D-printed master, then cast in polyurethane compounds that mimic ABS, PP, rubber, or transparent acrylic.
  • Batch size is 10 to 100 units
  • You need ABS-like, PP-like, or rubber-like properties
  • The part must be transparent or color-matched
  • Overmolding or multi-material is required

Urethane Casting

Bridge 3D printed prototypes and high-volume injection molding — producing production-quality parts in small to medium batches without the cost or lead time of steel tooling.

Production-Quality Parts at Low Volume

Urethane casting delivers excellent surface finish, fine detail, and material properties that closely mimic ABS, Polypropylene, Nylon, and flexible rubber. A single 3D printed master creates a silicone mold capable of yielding 10 to 50+ copies — at a fraction of injection mold costs.

Material Flexibility & Multi-Material Parts

One mold, multiple resins — test rigid, flexible, or transparent variations without new tooling. Complex overmolded parts, such as rigid components with soft-touch grips, can also be produced through secondary casting steps.

Fast to Market & Bridge to Mass Production (UAE)

For UAE startups and product teams, urethane casting enables high-fidelity batches for trade shows, user testing, and early sales while injection molds are still being made. Parts are robust enough for functional validation — de-risking the final transition to mass production by surfacing design and manufacturability issues early.

URETHANE CASTING

Production-quality cast parts in batches
of 10 to 100, without steel tooling.

A bridge between prototyping and injection molding.

MJF is our workhorse for most production work, but it cannot directly deliver every material property. Urethane casting fills that gap:
we build a silicone mold from a 3D-printed master, then cast in polyurethane compounds that mimic ABS, PP, rubber, or transparent acrylic.
  • Batch size is 10 to 100 units
  • You need ABS-like, PP-like, or rubber-like properties
  • The part must be transparent or color-matched
  • Overmolding or multi-material is required

Urethane Casting

Bridge 3D printed prototypes and high-volume injection molding — producing production-quality parts in small to medium batches without the cost or lead time of steel tooling.

Production-Quality Parts at Low Volume

Urethane casting delivers excellent surface finish, fine detail, and material properties that closely mimic ABS, Polypropylene, Nylon, and flexible rubber. A single 3D printed master creates a silicone mold capable of yielding 10 to 50+ copies — at a fraction of injection mold costs.

Material Flexibility & Multi-Material Parts

One mold, multiple resins — test rigid, flexible, or transparent variations without new tooling. Complex overmolded parts, such as rigid components with soft-touch grips, can also be produced through secondary casting steps.

Fast to Market & Bridge to Mass Production (UAE)

For UAE startups and product teams, urethane casting enables high-fidelity batches for trade shows, user testing, and early sales while injection molds are still being made. Parts are robust enough for functional validation — de-risking the final transition to mass production by surfacing design and manufacturability issues early.

Contact us

For unregistered user

3DX On Demand offers complete parts manufacturing services, from 3D printed metal and plastic parts to traditional CNC, injection moulding, and cast urethane.  We provide high quality parts and prototypes with some of the fastest and most reliable turnaround times in the industry. Our global network of efficient digital production facilities and manufacturing partners are able to meet the time-critical and unique business needs of today’s leading companies.

Take advantage of this opportunity to explore our range of offerings and experience our dedication to providing exceptional service. We value your trust and appreciate your support.


 

3DX can process common mesh files, such as stl, obj, step, iges, 3dm.

 

We support mesh file types: STL, OBJ, STEP, IGES, WRL, WRZ, STP, IGS, PLY, ARC, CATProduct, CATShape, CGR, DLV, EXPm, IAM, NEU, PAR, PKG, PRT, PSM, SAB, SESSION, SLDPRT, STPZ, UNV, X_T, XAS, XMT, XPR, 3DM, 3dMXL, ASM, CATPart, IPT, JT, MF1, MODEL, SAT, U3D, VDA, VRML, X_B, HPMJF

 

Please note that while some file types will upload successfully, others may not be used to submit an order on our platform. We suggest you refer to the above lists to avoid any upload failures. 3DX does not accept drawing files (except when accompanied by a CAD file), or IGES and F3D files. Below is a list of exceptional file types and in what instances they can be used to place an order with 3DX: 3DX cannot currently quote or make parts based on assembly files. If you are interested in ordering an assembly, each part will need to have its own CAD file.

However, if you are uploading your Bill Of Material for production, 3DX will accept assembly files as supplementary information. Common assembly file types are .sldasm, .asm, .iam, and .catproduct. The only time you may upload a drawing file is when it's in conjunction with a CAD file, and it must be in PDF format. We do not accept .slddrw, .dxf, or .catdrawing files. We also cannot quote a project based on a drawing alone.

 

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