From August 1st to 15th, our activity will be reduced. Orders placed during this period may require a slightly longer processing time.

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FDM 3D printing (fused filament deposition)

Fused Deposition Modeling (FDM) 3D printing is an affordable, cost-effective technology, particularly well suited to rapid prototyping, small production runs and the creation of custom parts. It stands out for the diversity of available materials, its design flexibility and its controlled costs. FDM thus combines accessibility, versatility and efficiency.

It works by melting a thermoplastic filament, deposited layer by layer to shape the final object. This simple, economical technique is ideal for quickly producing models, prototypes and functional parts of all sizes.

Why choose FDM technology?

FDM technology is ideal if you are looking for an economical, fast and versatile solution for your 3D prints. It makes it easy to produce prototypes, functional parts or small production runs, with a wide choice of materials suited to many uses. FDM also offers the ability to print large parts and to quickly modify your designs at low cost.

It is particularly recommended for:

  • Rapid prototyping and concept iteration

  • Producing spare parts or custom tooling

  • Projects requiring flexibility and cost control

However, if your project demands very high precision or a perfect surface finish, other technologies such as resin printing may be more appropriate. FDM nevertheless remains the most accessible and versatile solution for the majority of 3D printing needs.

FDM 3D printing means the freedom to create prototypes, functional parts or small production runs quickly and at low cost, while offering unmatched flexibility in the choice of materials and shapes.

Our Filaments

The list below is not exhaustive; there are countless combinations, manufacturer-specific optimisations and alternatives. We will be able to recommend THE filament that is a perfect fit for your projects.

PLA and derivatives

Filament Quick facts Advantages Drawbacks Applications Special features
PLA+ Improved PLA, stronger and more flexible Easy to print, better strength than standard PLA Slightly more expensive than standard PLA Prototyping, decorative parts, general use
Smooth finish
PLA NX2 New-generation PLA, matte surface Fast printing, matte finish, high quality More expensive than standard PLA Prototyping, decorative objects FDA and RoHS compliant, toy-safe, UV stable
PLA-CF Carbon-fibre-filled PLA Stiffness, lightness, matte finish More brittle Functional prototyping, technical parts Typical slightly grainy finish
PLA VX Virucidal PLA, ISO 21702 certified Limits viral spread, safe for skin contact Mechanical properties close to PLA Frequently touched objects (handles, buttons) Tested virucidal, fast action
PLA WOOD PLA with wood fibres Wood look/smell, sandable Fragile Decoration, scale models, design objects May darken depending on temperature
PLA PMUC PMUC-certified PLA (nuclear industry) Traceability, safety High price, restricted use Nuclear, specific industries FME pink colour, regulated use
Conductive PLA Carbon/metal-filled PLA, conductive Electrical conductivity More expensive, lower mechanical performance Circuits, sensors, electronics prototyping
Low resistivity

PETG & Copolyesters

Filament Quick facts Advantages Drawbacks Applications Special features
PETG Polyester, semi-rigid, water-resistant Strong, food-safe Hygroscopic Mechanical parts, enclosures, containers Good UV resistance
PETG-CF Carbon fibres Stiffness, stability, strong Lower impact resistance Technical, structural parts Tensile modulus 3x that of PETG
PETG-GF Glass fibres Stiffness, UV resistance, less brittle Brittle Outdoor, structural parts Less conductive than CF, outdoor use
PETG-CF+GF Carbon + glass fibres Stiffness, stability, increased strength - Structural, technical parts Dual fibres
PETG ADN Modified, specific properties Tamper-proof, signature  - Industry, research, art Proprietary additives
Magnetic PETG Magnetic (iron particles) Attracted by magnets Less strong Interactive parts, gadgets Weak magnetism
PETG-PTFE PTFE (Teflon) Low friction, wear resistance Lower mechanical properties Slides, gears Withstands 70°C and abrasion
PETG PMUC PMUC certified (nuclear industry) Traceability, safety High price, restricted use Nuclear, specific industries Regulated use
PETG X-MR Modified, high strength Superior mechanical strength More expensive Industrial prototyping X-ray detectable
PETG V0 Self-extinguishing, UL certified Fire resistance, electronics safety More expensive, lower mechanical properties Enclosures, electronic parts The only UL V0 certified PETG
XPETG-REC Recycled PETG, eco-friendly Eco-friendly, lower cost Variable properties, less stable Prototyping, everyday objects 100% recycled, circular economy
XPETG-CF Recycled PETG + carbon fibres Stiffness, eco-friendly Hardened nozzle required, variable properties Prototyping, technical parts Recycled & reinforced
PETG-ESD Electrostatic dissipative ESD protection, chemical resistance More expensive, lower mechanical properties Electronic enclosures, industry Surface resistance 10⁷-10⁹ Ω
PCTG Copolyester, stronger than PETG Excellent impact, chemical and heat resistance More expensive Industrial parts, medical, electronics Unbreakable, sterilisable, high gloss
PVB Polymer post-processable with alcohol Easy smoothing, smooth finish Lower mechanical strength Vases, decoration, design objects Smooths with isopropyl alcohol

ABS, ASA, PMMA

Filament Quick facts Advantages Drawbacks Applications Special features
ABS Classic engineering thermoplastic Strong, post-processable (acetone), heat-resistant Toxic fumes Prototyping, tooling, functional parts Non-biodegradable, health precautions advised
ABS-CF Carbon-fibre reinforced Stiffness, mechanical strength Toxic emissions Tooling, structural parts, industry Carbon composite, lighter
ABS-AF Aramid-fibre (Kevlar) reinforced Lightness, impact resistance, non-conductive High price Shock absorption, drones Low shrinkage
ABS PMUC PMUC certified (nuclear industry) Traceability, safety, regulated use High price, restricted use Nuclear, specific industries PMUC certification, pink colour
ASA Close to ABS, outdoor engineering material UV resistance, colour stability, outdoor use - Street furniture, signage, outdoor Acetone smoothing
ASA-CF Carbon fibres Stiffness, UV High cost Outdoor technical parts Carbon composite
ASA-GF Glass fibres Stiffness, UV, dimensional stability Brittle Outdoor structural parts Glass composite
ASA-AF Aramid fibres Impact resistance, lightness, UV More expensive Outdoor parts, vibration absorption Aramid composite
ASA PMUC PMUC certified (nuclear industry) Regulated use, safety High price, restricted use Nuclear, specific industries PMUC certification
PMMA Acrylic, transparent, rigid Transparency, rigidity, glass-like appearance Brittle Glazing, lamps, decoration Glossy finish, fragile

Flexibles & Elastomers

Engineering

Filament Quick facts Advantages Drawbacks Applications Special features
FLEX VX Virucidal flexible Flexible, virucidal properties Less common, higher price Contact objects, medical Certified virucidal action
TPU 85A Polyurethane, flexible (85A hardness) Very flexible, good elasticity - Soles, cases, seals Low hardness (very soft)
TPU 98A Polyurethane, flexible (98A hardness) Flexible Less elastic than 85A Soft parts, protective covers Intermediate hardness
TPU-ESD Antistatic Dissipates electrostatic charges More expensive, lower mechanical properties Electronic parts, industry ESD protection
TPU-CF Carbon fibres Flexible, increased stiffness Less elastic Technical soft parts Carbon composite, semi-rigid
TPE Thermoplastic elastomer Very flexible, pleasant to the touch Softer than TPU, less durable Flexible prototyping, toys Several hardnesses available
TPC Flexible copolyester, UV & heat resistant Chemical, UV, heat resistance, flexible, impact-resistant - Flexible parts, outdoor, industry 43% bio-based, professional grade, high temp.

Filament Quick facts Advantages Drawbacks Applications Special features
PC Polycarbonate, high strength, transparent Very strong, high temp., electrical insulation Hygroscopic Technical parts, tooling, industry Very tough
PC/PBT PC + PBT polyester Stiffness, durability, chemical resistance, temp. range Less transparent than pure PC Automotive, industry, enclosures, moulds Stability
PC/PBT-CF Carbon-fibre filled Increased stiffness and heat resistance - Structural, industry, automotive Carbon composite, high temp.
PC-PTFE PTFE (Teflon) modified Very low friction, wear resistance, tough High price Gears, slides, friction applications Usable up to 130°C, low friction
PA6 Nylon 6, engineering grade, strong High mechanical strength, stiffness, chemical resistance Hygroscopic Gears, mechanical parts, automotive Excellent load-bearing, flexible
PA6-CF20 Nylon 6 + 20% carbon fibres Stiffness, heat resistance, very strong Hardened nozzle required, technical printing, hygroscopic Industry, automotive, structural parts HDT 215°C, high modulus, excellent adhesion
PA6-GF25 Nylon 6 + 25% glass fibres Stiffness, dimensional stability, good heat resistance Brittle Structural, automotive, industry HDT 191°C
PA6-AF Nylon 6 + aramid fibres (Kevlar) Lightness, shock absorption, good strength - Impact/vibration, industry Aramid composite, low shrinkage
PA12 Nylon 12, less hygroscopic Good mechanical strength, dimensional stability Less strong than PA6, higher price Prototyping, automotive, industry Low moisture absorption
PA12-CF Nylon 12 + carbon fibres Stiffness, heat and chemical resistance, matte - Industry, automotive, structural 10% carbon fibres, stability
PA12-GF Nylon 12 + glass fibres Stiffness, dimensional stability, heat Brittle Structural, automotive, industry Excellent stability
PP Polypropylene, flexible, chemically resistant Light, fatigue-resistant, food-safe, non-hygroscopic - Mechanical parts, hinges, containers Oil-resistant, recyclable
PP-CF PP + carbon fibres Stiffness, chemical resistance, non-hygroscopic - Industry, automotive, structural Flexible, resists oils and fuels
PCL Low-temperature thermoplastic Melts at 60°C, biodegradable Low mechanical strength Rapid prototyping, education Hand-remouldable when warm
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