Application

Design & Concept Modeling

Product teams use design concept models to move from screen-based design reviews to physical evidence for form, fit, appearance, or early function. D2M supports Middle East developers with additive manufacturing, scanning, and model-making routes using routes such as ABS-M30 and ABS-M30i matched to the decision the prototype must support.

Review Hardware Routes

Application overview

Design & Concept Modeling for GCC Engineering Teams

Design & Concept Modeling is used when a team needs to learn from a physical object before the design is frozen. The buyer may need to judge ergonomics, assembly fit, visual finish, scale, packaging, user interaction, or early function. D2M helps select a prototype route that matches the question being asked, because a presentation model, fit model, and test model do not need the same material or finish.

The search intent behind this application is practical: the visitor wants help with turning design intent into physical models that help teams judge form, fit, function, appearance, or user interaction. D2M's role is to connect that need with a route that can be quoted, trialed, inspected, or rejected with clear reasons.

From Requirement to Working Output

The most relevant route is usually PolyJet, SLA, FDM, SAF, scanning, and design-for-manufacture review. For this page, D2M uses linked context such as ABS-M30, ABS-M30i, ABSi P500 and DraftGrey and PolyJet™, SLA, FDM® and SAF™ as a starting point for discussion. Stratasys, SCANOLOGY and SIEMENS 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 design & Concept Modeling, D2M reviews the purpose of the model before choosing a process. PolyJet can support appearance and multi-material detail, SLA can support fine surface quality, FDM can support robust form and larger parts, and scanning can help compare an existing object with the design. The prototype should answer a specific design question.

What D2M Reviews Before Recommending a Route

Regional context matters because GCC clients often balance local response time, imported-part availability, operator training, production approvals, and supplier capability. Consumer Products, Education, Aerospace and Automotive may use design & Concept Modeling 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 present prototype material behavior as final production performance unless tested for the intended use. 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.

Information That Helps the First Review

A useful first conversation includes CAD, sketches, finish expectations, assembly needs, test purpose, target date, quantity, and any parts that must interface with the model. 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.

Technology routes

SLA

SLA stereolithography is a photopolymer additive manufacturing process used for precise models, tooling patterns, and visual or functional prototypes. D2M helps clients assess whether SLA fits the application, material route, accuracy requirement, and workflow.

Review technology: SLA
SLA

PolyJet™

PolyJet is a multi-material additive manufacturing process used for detailed prototypes, anatomical models, tooling, and visual or functional models. D2M helps clients assess where PolyJet fits the application, material requirement, workflow, documentation, and quality-control context.

Review technology: PolyJet™
PolyJet™

Relevant systems

Materials

ABS-M30 3D Printed handle

Stratasys

ABS-M30

A stronger, tougher ABS material designed for reliable everyday industrial 3D printing.

View system: ABS-M30
ABS-M30i 3D Printed human skull

Stratasys

ABS-M30i

ABS-M30i is an FDM ABS material for applications where OEM-documented biocompatibility, sterilization route, and operating requirements need to be reviewed.

View system: ABS-M30i
ABSi P500

Stratasys

ABSi P500

High-impact, semi-translucent ABS material for functional testing, flow visualization, and durable end-use parts.

View system: ABSi P500
SUP706B™ 3D Printing Material

Stratasys

SUP706B™

A soluble support material for PolyJet 3D printing that dissolves easily for hands-free post-processing and preservation of complex part geometries.

View system: SUP706B™
SUP710™ 3D Printing Material

Stratasys

SUP710™

A gel-like, breakaway support material for PolyJet technology, enabling easy removal from intricate parts and internal cavities without tools or solvents.

View system: SUP710™

Scanners

Scanology 3DeVOK MQ handheld 3D scanner

SCANOLOGY

Scanology 3DeVOK MQ

A wireless, marker-free professional 3D scanner designed for flexible, everyday creation and measurement.

View system: Scanology 3DeVOK MQ
Scanology KSCAN-E

SCANOLOGY

Scanology KSCAN-E

Flagship wireless 3D scanner with ultra-high accuracy, multiple scan modes and fully portable metrology-grade performance.

View system: Scanology KSCAN-E
Scanology TrackScan Sharp

SCANOLOGY

Scanology TrackScan Sharp

Industrial-grade, large-volume optical 3D scanning - fast, accurate, and target-free for parts from small components to huge assemblies.

View system: Scanology TrackScan Sharp
Scanology 3DeVOK MT handheld 3d scanner

SCANOLOGY

Scanology 3DeVOK MT

A versatile professional 3D scanner combining laser and speckle technology for fast, accurate, marker-free scanning.

View system: Scanology 3DeVOK MT
Scanology NimbleTrack

SCANOLOGY

Scanology NimbleTrack

Wireless, compact 3D scanning system delivering high-precision measurement for small-to-medium parts with total freedom of movement.

View system: Scanology NimbleTrack
Scanology NimbleTrack-CR

SCANOLOGY

Scanology NimbleTrack-CR

Wireless, high-precision 3D scanning system - portable and engineered for detailed industrial or heritage-grade scanning.

View system: Scanology NimbleTrack-CR

Printers

Stratasys F370®CR

Stratasys

Stratasys F370®CR

Accessible industrial composite printing for strong, stiff, carbon-fiber-reinforced parts and everyday manufacturing needs.

View system: Stratasys F370®CR
Stratasys Origin® Two

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® Two
Stratasys Neo® 800+

Stratasys

Stratasys Neo® 800+

Large-format SLA system for applications where accuracy, surface finish, resin route, and workflow requirements need to be reviewed.

View system: Stratasys Neo® 800+
Stratasys DentaJet™ J3

Stratasys

Stratasys DentaJet™ J3

Compact PolyJet dental printing with multi-material precision for models, guides and gingiva masks on a single tray.

View system: Stratasys DentaJet™ J3
Stratasys F900

Stratasys

Stratasys F900

High-capacity FDM engineered for reliable, precise, and consistent manufacturing at scale.

View system: Stratasys F900
Stratasys H350™

Stratasys

Stratasys H350™

Industrial SAF™ 3D printing for consistent, high-volume production with competitive part costs and streamlined workflows.

View system: Stratasys H350™
Stratasys F170™

Stratasys

Stratasys F170™

Accessible industrial-grade 3D printing with dependable accuracy, easy operation and versatile materials for classrooms and offices.

View system: Stratasys F170™
Stratasys F370®

Stratasys

Stratasys F370®

Accessible industrial FDM printing with reliable performance, versatile materials, and easy operation for office or shop-floor use.

View system: Stratasys F370®
Stratasys F770®

Stratasys

Stratasys F770®

Large-format industrial FDM printing for full-scale parts, production tooling and big builds at an accessible price point.

View system: Stratasys F770®
Stratasys J55™ Prime

Stratasys

Stratasys J55™ Prime

Compact full-color PolyJet printing with tactile, functional and multi-material capability for office-ready design workflows.

View system: Stratasys J55™ Prime
Stratasys F3300

Stratasys

Stratasys F3300

Next-generation FDM performance for faster, stronger, and more consistent part production.

View system: Stratasys F3300

Software

Evidence

Guidance

Cover image for Industrial 3D Printing Business Case

Technical paper

Industrial 3D Printing Business Case

Learn how to evaluate the financial case for industrial 3D printing by reviewing utilization, material route, qualification effort, current supply constraints, and operating requirements.

Read technical paper: Industrial 3D Printing Business Case
Industrial 3D printed polymer parts and fixtures displayed on a workbench in front of a Stratasys F900 additive manufacturing system.

Decision guide

Material and Process Selection for Industrial 3D Printing

Industrial 3D printing decisions should be made around application fit, not machine preference. This article reviews how teams can compare FDM, SAF, P3 DLP, SLA, PolyJet, and metal routes against geometry, tolerance, environment, material behavior, and production intent.

Read decision guide: Material and Process Selection for Industrial 3D Printing

Next step

Discuss your application

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