FDM · SLA · SLS · MJF · PolyJet · SLM · DMLS

3D Printing Technologies: Seven Processes, One Right Fit for Your Part

Guessing which of the seven costs you time, budget, and reprints. Quantix 3D Printing runs FDM, SLA, SLS, MJF, PolyJet, SLM and DMLS in-house and matches the right one to your part before you commit to anything, free with every quote.

Industrial 3D printing machines and finished parts across FDM, SLA, SLS, MJF, PolyJet, SLM and DMLS technologies

7

Technologies in-house, plastic & metal

45+

Materials matched to your part

10mm – 1700mm

Full build size range across every process

Free

Process match with every quote, no minimum order

3D Printing Technologies, Matched to Your Part, Not the Other Way Around

Most delays on the factory floor don't come from the part itself; they come from the wrong 3D printing technology being used to build it: a prototype run on a process that fails its tolerance check, a production job quoted by a supplier who only runs one machine type and forces every job onto it, or days lost waiting on a quote just to be told the technology doesn't suit the part at all. Quantix 3D Printing was built to remove that risk. We run all seven 3D printing technologies in industrial use today, FDM, SLA, SLS, MJF, PolyJet, SLM and DMLS, in-house, under one online, Australia-wide service, so your part is never forced onto whichever machine happens to be free. Our engineers match the technology to what the part actually has to survive, at no extra cost, before you're quoted anything: the difference between a part that ships on time, to spec, the first time, and one that comes back for a reprint.

Why manufacturers choose Quantix 3D Printing for every technology

Built for Commercial and Industrial 3D Printing

Quantix 3D Printing runs the full spread of 3D printing processes Australia manufacturers need under one roof: the kind of industrial additive manufacturing Australia businesses turn to when a part has to perform, not just look right in a render. Here's what that looks like in practice, not a brochure list of buzzwords:

All seven technologies, one supplier

FDM, SLA, SLS, MJF, PolyJet, SLM and DMLS under one roof, so you're never told “we don't do that one.”

Engineer-matched, not self-selected

every file gets a free process and material recommendation before it's quoted.

No minimum order quantity

a single prototype and a multi-hundred-unit batch are quoted and handled the same way.

Fast where it counts

FDM ships in 24 hours; every other technology typically ships in 5–6 working days.

Procurement-ready

purchase-order friendly, no lock-in contracts, and account support for repeat orders.

National reach

quoted and shipped to every state and territory, with the same technology range no matter where you're based.

Strictly confidential

every file and project detail stays private.

45+ materials on hand

plastics, resins, nylon, composites and metals, matched to the part rather than limited to what's in stock.

Find your technology in 60 seconds

Which 3D Printing Technology Should You Use?

FDM

Need it fast? Ships in 24 hours.

SLA

Need the smoothest finish or the largest single-piece build? Up to 1700 × 800 × 800mm.

SLS

Need a functional part that survives real handling, with no support marks?

MJF

Need production-run consistency, part after part?

PolyJet

Need multi-colour or multi-material in one build?

SLM

Need strength-to-weight or heat resistance beyond plastic, on a larger structural part?

DMLS

Need that same strength in a finer, more complex shape?

Still not sure? Send Us Your File → and an engineer will tell you, free, before you're quoted anything. You can also read more about FDM, SLS or SLM 3D printing.

All 7 technologies: full technical comparison

3D Printing Technology Comparison: Build Size, Tolerance and Turnaround

Seven additive manufacturing technologies Australia industry can access from one supplier: 3D printing methods explained as numbers, not adjectives:

TechnologyHow It BuildsMaterialMax Build EnvelopeTightest ToleranceShips InBest For
FDMMelts plastic filament, layer by layerPlastic914 × 609 × 914mm±0.15mm/100mm24 hoursFast, low-cost prototypes
SLAUV laser cures liquid resinResin1700 × 800 × 800mm±0.1mm/100mm5–6 daysSmoothest finish, largest single-piece builds
SLSLaser fuses nylon powder, no supports neededNylon675 × 545 × 366mm±0.1mm/100mm5–6 daysComplex geometry, functional parts
MJFFusing agent + heat across a nylon powder bedNylon380 × 284 × 380mm±0.1mm/100mm5–6 daysConsistent production runs
PolyJetMultiple resins jetted and cured togetherPhotopolymer490 × 390 × 200mm±0.1mm/100mm5–6 daysMulti-colour, multi-material parts
SLMLaser fully melts metal powderMetal760 × 390 × 390mm±0.2mm/100mm5–6 daysLarger structural metal parts
DMLSLaser sinters metal powderMetal220 × 220 × 250mm±0.2mm/100mm5–6 daysFine, complex metal geometry

Most development cycles use more than one: FDM to check fit, SLA or PolyJet to check finish, SLS, MJF or metal to prove it performs. Not sure where yours lands?

3D printing vs. traditional manufacturing

3D Printing vs. CNC Machining and Injection Moulding

Choose 3D Printing When

  • You need the first part in days, not the six-plus weeks tooling typically takes
  • The geometry (internal channels, consolidated assemblies) can't be moulded or machined
  • Order quantity sits from one unit to a few hundred
  • The design is still changing between revisions

Choose CNC Machining or Injection Moulding When

  • Order quantity runs into the thousands, where tooling investment pays off
  • The design is finalised, with no further iteration expected
  • You need a specific machined finish or metal grade at scale

Plenty of manufacturers use 3D printing technology to prove a design works, then move to CNC or injection moulding once volume justifies tooling. Quantix 3D Printing doesn't offer CNC or injection moulding directly, but we'll tell you plainly if that's the better fit for your job, as part of the same free process review every quote already includes.

Technical capability and production capacity

What Quantix 3D Printing Can Actually Build

Full size range

10 x 10mm up to a single 1700 × 800 × 800mm SLA build, the widest span of any Quantix 3D Printing page, because it's the only one spanning all seven processes at once.

Tolerance by process family

±0.1mm/100mm on SLA, SLS, MJF and PolyJet; ±0.15mm/100mm on FDM; ±0.2mm/100mm on SLM and DMLS metal parts, checked on every job as part of the free design review.

45+ materials across all seven processes

plastics, engineering resins, nylon and composite powders, photopolymers, and metals including titanium, stainless steel and aluminium. See the Full Material List →

Batch capacity

a single prototype and a multi-hundred-unit production run go through the same quoting process, on any of the seven technologies, with no minimum order and no setup fee.

File formats accepted

STL, STEP, IGES and most common CAD formats, across every process.

Cross-process projects

FDM for fit-check, SLA for presentation, MJF or metal for production; one project, one quote, tracked as a single job.

What drives cost across the seven technologies

3D Printing Technology Cost: Three Tiers, Not One Number

TierTechnologiesWhat Drives the Cost
1 (Lowest)FDMCheap filament, fast machine time, minimal post-processing
2 (Mid-range)SLA, PolyJet, SLS, MJFResin or nylon powder cost, plus longer cure or fuse time
3 (Premium)SLM, DMLS (metal)Expensive metal powder, longer laser time on a metal bed

Inside every tier, four things move the number: part size, geometry complexity, finishing beyond as-printed, and order quantity, where per-unit cost drops as volume increases, with no minimum required to get there. Upload a file for the real number; a tier tells you roughly where you'll land, not what you'll pay.

Where these technologies get used

Industrial 3D Printing Technologies Across Australian Business

Most sectors lean on more than one row of the comparison table above:

3D printed manufacturing jigs, fixtures and functional prototypes on a workshop bench

Manufacturing & Engineering

tooling, jigs, fixtures and functional prototypes.

3D printed automotive and motorsport brackets and trim beside a race car chassis

Automotive & Motorsport

rapid-iteration brackets and trim, plus SLM/DMLS parts for real strength-to-weight.

DMLS titanium aerospace components with lattice structures and ducting

Aerospace & Defence

DMLS titanium and nickel-alloy components, SLS ducting and brackets.

3D printed metal replacement housings for mining equipment

Mining & Resources

fast-turnaround replacement housings, metal for structural or wear load.

MJF nylon robotics enclosures and electronics brackets

Robotics & Electronics

MJF for consistent, repeatable enclosures and brackets.

White SLA 3D printed architectural presentation model of a building

Architecture & Design

SLA and PolyJet presentation models.

3D printed teaching models and research prototypes on a laboratory bench

Education & Research

FDM teaching models, SLA detail-critical prototypes.

SLS and MJF 3D printed custom fixtures and equipment housings in a warehouse

Transport & Logistics

SLS and MJF custom fixtures and equipment housings.

From enquiry to finished part

How Quantix 3D Printing Picks the Right Technology for You

  1. 1

    Step 1

    Send your file and describe the part

    what it needs to survive, how many you need.

  2. 2

    Step 2

    We match the technology, free

    an engineer shortlists and checks tolerance risk before anything's quoted.

  3. 3

    Step 3

    You get one quote

    tied to the recommended process and material, no obligation.

  4. 4

    Step 4

    It's built, checked and shipped

    anywhere in Australia.

Technology match request

Get a Free Technology-Matched Quote

Send your file and tell us what the part has to survive. An engineer shortlists the right process and material, free, before anything is quoted.

  • All seven technologies in-house: FDM, SLA, SLS, MJF, PolyJet, SLM and DMLS
  • 45+ materials matched to the part, not to what's in stock
  • FDM ships in 24 hours; every other technology typically ships in 5–6 working days
  • No minimum order quantity, shipped anywhere in Australia

3D Printing Technologies: Frequently Asked Questions

How many types of 3D printing technology are there?

Seven are in mainstream industrial use: FDM, SLA, SLS, MJF, PolyJet, SLM and DMLS. Quantix 3D Printing runs all seven in-house.

What's the difference between all the 3D printing technologies?

How they build the part, what materials they support, and the detail, size and cost that result. The comparison table above lines up all seven side by side.

Which 3D printing technology should you use?

It depends on the part. FDM wins on speed and cost, SLA on finish and size, SLS and MJF on functional strength, PolyJet on multi-material builds, and SLM or DMLS once the part needs to be metal. Section 6 above narrows it down in seconds.

Which 3D printing technology is fastest?

FDM, by a wide margin, typically ships within 24 hours. The other six typically ship in 5–6 working days.

Which 3D printing technology is strongest?

SLS and MJF nylon lead among plastics. Beyond plastic, metal (SLM or DMLS) in titanium, stainless steel or nickel alloys is stronger again.

Which 3D printing technology is cheapest?

FDM sits at the bottom of the cost ladder. SLA, PolyJet, SLS and MJF sit mid-range; metal (SLM/DMLS) carries the highest relative cost. See Section 10.

Is 3D printing technology accurate enough for engineering tolerances?

Yes, within process-specific limits: ±0.1mm/100mm on SLA, SLS, MJF and PolyJet; ±0.15mm on FDM; ±0.2mm on SLM and DMLS. Every job gets a dimensional check as part of the free design review.

Should you use 3D printing or CNC machining for your part?

3D printing usually wins when you need the first part fast, the geometry can't be machined or moulded economically, or order quantity is too low to justify tooling. CNC or injection moulding usually wins once volume climbs into the thousands. See Section 8.

Can one company really run all seven technologies?

Yes. Quantix 3D Printing operates FDM, SLA, SLS, MJF, PolyJet, SLM and DMLS in-house, so the process is matched to the part, not the other way around.

Is DMLS better than SLM?

Neither is universally better: SLM suits larger, denser structural parts; DMLS suits finer, more complex ones. More detail on our metal 3D printing page →

What's the newest 3D printing technology?

These seven are the established, production-proven technologies in industrial use today. We won't quote a process we can't back with real capability.

Is there a minimum order quantity?

No, on any of the seven technologies: a single prototype and a full production batch are quoted the same way.

How do you get a quote across multiple technologies for one project?

Upload your files and note that the project spans more than one process; we'll quote and track it as a single job.

Do you keep my files and project details confidential?

Yes. Everything shared with Quantix 3D Printing, across every technology, is treated as strictly confidential.

Match Your Part to the Right 3D Printing Technology

Seven processes, one engineer-reviewed recommendation, no guesswork on your end. Upload your file, tell us what the part needs to survive, and get a technology-matched quote, with no minimum order, nothing locked in, shipped anywhere in Australia.