More and more manufacturing, engineering, and design companies are looking for the answer to one question: how much does 3D printing actually cost, and which technology should you choose for your project? In this article, we explain what determines the pricing of 3D printing services, how the different technologies differ, and what requesting a quote from Fibometry looks like in practice.
3D printing (additive manufacturing) is no longer just a technological curiosity — today it’s a real production tool used in prototyping, serial production, spare parts manufacturing, and production tooling. We increasingly receive inquiries not only from R&D departments but also from production, maintenance, and procurement teams — companies that need a specific part, a specific material, and a specific deadline.
What determines the price of 3D printing?
The price of a 3D printing service is never a single, fixed rate per gram of material — it’s the result of several factors that we analyze with every inquiry:
Printing technology – SLS, MJF, FDM/FFF, SLA/DLP, PJ/MJM, and DMLS/SLM differ in machine-hour cost and how material is accounted for.
Material – from basic polymers (e.g., PA12, ABS), through specialized materials (PEEK, ULTEM, PA11), to metal alloys (aluminum, titanium, tool steel, Inconel).
Part geometry and size – shape complexity, wall thickness, supports, and overall dimensions affect print time and material consumption.
Quantity – a single prototype is priced differently than a production batch, where the unit cost drops as the scale increases.
Finishing – dyeing, sanding, painting, or other post-processing operations.
Turnaround time – standard lead time or express delivery.
That’s why the fastest way to find out the real cost is to send your project file (STL, STEP, OBJ) and request a quote — our experts will prepare a free, individual calculation for your project.
Which 3D printing technologies do we offer, and what are they suited for?
SLS – laser sintering of polymer powders. Works well for high-quality parts made from durable engineering materials — from certified, non-flammable grades (PA2241FR), through impact-resistant materials (PA11), to general-purpose materials (PA12). This technology is used both in prototyping and in serial production.
MJF – a powder-based technology that produces smooth surfaces and repeatable quality, well suited to larger production runs and functional parts.
FDM/FFF – filament printing, ideal for durable, ergonomic production tooling. ABS is the most commonly used material, but highly specialized materials such as PEEK or ULTEM are also available, performing well in aggressive working environments.
SLA/DLP – photopolymer printing offering high dimensional accuracy and surface smoothness — excellent for aesthetic details and precision prototypes.
PJ/MJM – a technology that allows combining different materials and colors in a single print, useful for multi-material and presentation models.
DMLS/SLM – metal 3D printing. Where conventional production of metal-alloy parts or tools would require significant financial and time investment, DMLS/SLM makes it possible to obtain quality parts from tool steels, high-alloy steels, as well as aluminum, titanium, and nickel alloys — without investing in tooling.
Prototyping or serial production – when does each option pay off?
3D printing works well at every stage of a product’s life cycle:
Prototyping – rapid concept verification, functional testing, and design revisions without costly tooling.
Batch production – when you need repeatable quality across a larger number of parts, without investing in molds or dies.
Production tooling – jigs, fixtures, and auxiliary tools tailored to a specific workstation.
OEM contract manufacturing – long-term production partnerships for companies that want to shift part of their manufacturing to additive technologies.
If you don’t have a finished design yet, our CAD design team will help you build a model from scratch or optimize an existing design for 3D printing.
How to order a 3D printing quote from Fibometry – step by step
- Send your design file – we accept OBJ, STL, STEP, and STP formats.
- Design analysis – we review the geometry and select the technology and material suited to the part’s application and working environment.
- Free quote – you receive an individual cost and lead-time estimate.
- Production and finishing – printing, plus additional processes such as dyeing or sanding if needed.
- Delivery of finished parts – according to the agreed schedule, including for larger production batches.
Have a project, a CAD file, or a question about choosing the right technology? Send an inquiry — our experts will get back to you and prepare a free quote tailored to your project.
Frequently Asked Questions About 3D Printing Services
How long does a 3D printing order take? Turnaround time depends on the technology, batch size, and the complexity of the part — from a few days for prototypes to longer lead times for larger production runs. We always provide the exact timeline with the quote.
What files should I send to get a quote? The most commonly used formats are STL, STEP, STP, and OBJ. If you don’t have a ready 3D model, our design team can help create one.
Is 3D printing suitable for serial production, or only for prototypes? Both are possible. Technologies such as SLS, MJF, and DMLS are successfully used both in prototyping and in serial production — without the need to invest in molds or tooling.
Is metal 3D printing more expensive than printing in polymers? Generally, yes — DMLS/SLM technologies require more expensive materials and longer production times, but they eliminate conventional tooling costs, which often makes them more cost-effective than traditional metalworking for low- and medium-volume runs.
