Every filament is a trade-off between ease of printing, strength, flexibility, heat resistance, and finish. This guide breaks down the most common 3D-printing materials, with datasheet-verified print settings, honest pros and cons, and what each one is genuinely good for, so you can match the right material to your project.
7Materials covered
Datasheet-verified specs
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Scroll the table sideways on mobile. Tap a material name to jump to its full guide.
The most popular and forgiving filament. Plant-based, low-warp, and razor-sharp on detail, so it is ideal for models, prototypes, and indoor parts. Its one real weakness is heat: it softens around 55 to 60 °C, so keep prints out of hot cars and direct sun.
The do-it-all bridge between easy PLA and tough ABS. It is impact- and moisture-resistant, slightly flexible, and weather-capable, which makes it great for functional parts. The catch is stringing, so dry filament and tuned retraction make all the difference.
A rubber-like filament that bends, stretches, and absorbs impact without breaking, with outstanding abrasion resistance. Hardness runs on the Shore A scale (85A soft up to 98A firm); 95A is the easy-printing standard. Print slowly, ideally with a direct-drive extruder.
Nozzle temp210-240 °C
Bed temp25-60 °C
EnclosureNot needed
Cooling fanOn (about 50-100%)
Print speed15-40 mm/s (slow)
Bed adhesionPEI / glass; sticks easily
DryingDry 70 °C, 7-8 h
Ease of printing
Strength
Flexibility
Heat resistance
Durability
Detail
Strengths
Exceptional flexibility & elasticity
Outstanding abrasion & impact toughness
Doesn't warp, so no enclosure needed
Sticks to the bed easily
Good oil, grease & chemical resistance
Wide hardness range (85A to 98A)
Trade-offs
Soft filament buckles, so direct drive is preferred
ABS's tougher, UV-stable cousin: it resists sunlight, weather, and yellowing, which makes it the go-to for functional outdoor parts. It prints much like ABS, with high temperatures, easy warping, and styrene fumes, so an enclosure and good ventilation are essentially required.
Print on a hot PEI bed with glue stick and a wide brim.
Keep the fan off, or at 25% or less only for overhangs.
Ventilate, because ASA gives off styrene fumes.
Dry at around 70 to 80 °C and tune settings to your specific brand.
Skip it for: Open-air printing in living spaces, beginners, and flexible parts.
ABS
Acrylonitrile Butadiene Styrene
The classic impact-tough engineering plastic
Advanced to print
Tough, heat-resistant, and acetone-smoothable, ABS has been the long-time standard for functional and automotive parts. It warps badly without a heated enclosure and emits styrene fumes, so ventilation is a must. For anything that lives outdoors, ASA is the better, UV-stable choice.
Nozzle temp230-250 °C
Bed temp100-110 °C
EnclosureRequired
Cooling fanOff / very low
Print speed40-60 mm/s
Bed adhesionPEI + glue stick / ABS slurry; brim
DryingDry 80 °C, 4-8 h
Ease of printing
Strength
Flexibility
Heat resistance
Durability
Detail
Strengths
Tough, high impact resistance
Good heat resistance (survives a hot car)
Acetone vapor-smoothable to a glossy finish
Sands, paints & glues well
Ductile, so it bends before breaking
Inexpensive & widely available
Trade-offs
Warps & cracks without an enclosure
Emits styrene fumes, so ventilate
Needs a hot bed (around 100 °C)
Yellows & weakens under UV outdoors
Not food-safe; about 1 to 2% shrinkage affects accuracy
Use an enclosure and avoid drafts for the entire print.
Bed at 100 °C or higher on clean PEI with glue stick, and add a brim.
Keep the part-cooling fan off or very low.
Ventilate or filter the fumes on every print.
Account for roughly 1 to 2% shrinkage on dimension-critical parts.
Skip it for: Outdoor or UV exposure (use ASA), food contact, and beginners.
Nylon
Polyamide (PA)
The engineer's tough, wear-resistant workhorse
Advanced to print
The go-to for durable, low-friction, fatigue-resistant parts like gears, hinges, and bushings. It is incredibly tough, but it is also the most moisture-hungry filament there is, so drying is non-negotiable. Carbon-fiber grades (PA-CF) add stiffness and heat resistance but need a hardened nozzle.
Dry first, always: 70 to 90 °C for 6 to 12 hours, and print from a dry box.
Use an enclosure for unfilled nylon and keep the part fan off or low.
Adhere with Garolite or a glue stick, plus an 8 to 10 mm brim.
Follow your brand's bed temp: hot (around 80 to 110 °C) for most, or low (25 to 50 °C) with Polymaker's anti-warp system.
For carbon-fiber grades, fit a hardened-steel 0.6 mm nozzle.
Skip it for: Wet or outdoor service, tight tolerances if undried, and fine miniatures.
PC
Polycarbonate
Maximum strength and heat resistance
Advanced to print
One of the strongest, most heat-resistant desktop filaments, and among the most demanding to print. It shrugs off impact and stays rigid past 110 °C, with optical clarity in pure grades. Expect very high temperatures, a sealed enclosure, and serious moisture sensitivity.
Nozzle temp250-290 °C
Bed temp90-110 °C
EnclosureRequired (sealed)
Cooling fanOff / minimal
Print speed30-60 mm/s
Bed adhesionPEI + glue release; brim
DryingCritical: 70-90 °C, 6+ h
Ease of printing
Strength
Flexibility
Heat resistance
Durability
Detail
Strengths
Outstanding strength & impact toughness
Best-in-class heat resistance (HDT up to about 135 °C)
Dry first (70 to 90 °C, 6+ hours) and print from a dry box.
Use a sealed, pre-heated enclosure.
Print on a roughly 100 to 110 °C PEI bed with a glue release layer and a brim.
Keep the fan off for pure PC, or minimal for blends.
An all-metal hotend is required; use a hardened nozzle for carbon-fiber blends.
Skip it for: Beginners, open-frame printers, and flexible parts.
Beyond the basics
Carbon & glass-fiber composites
Adding chopped carbon or glass fiber to a base plastic (PLA-CF, PETG-CF, PA-CF) boosts stiffness and dimensional stability and gives a premium matte finish. It does not automatically make parts stronger, though, and it does make them more brittle. The fibers are abrasive, so a hardened-steel, ruby, or tungsten-carbide nozzle is required. The base polymer still sets the temperature and enclosure needs.
Soluble support materials
For complex overhangs printed on a dual-extruder machine, support filaments dissolve away cleanly. PVA dissolves in plain water but is extremely moisture-sensitive; HIPS dissolves in d-limonene (a citrus solvent) and pairs naturally with ABS and ASA.
A note on accuracy
Print settings vary by brand, color, and printer, so always start from your spool's label and fine-tune. The values here are typical consumer ranges, cross-checked against manufacturer datasheets.
Still not sure what to print?
Start with PLA for looks and PETG for function. Together they cover most projects. Reach for ASA when it lives outdoors, or TPU when it needs to flex. Browse the range, or get in touch and we'll help you choose.