3D Printing Info

Filament comparison

ABS vs PA6/66

Compare printing settings, strength, heat resistance, dated prices and sources.

ABS guidePA66 (Nylon 66) guide

2 selected · all documented properties

Open these two in the interactive comparisonMore ABS comparisonsMore PA6/66 comparisons
ABS vs PA6/66 — documented properties and sources
PropertyABSABSPA66 (Nylon 66)PA
Market snapshot
Listing priceUSD/kg; dated snapshots$19.99/kg median; $11.99–$45.00/kg across 16 dated product listingsNot documented
Identity & Market
Base polymer / chemistryAcrylonitrile butadiene styrene — a styrenic terpolymer with a butadiene rubber phase[1][2]Polyamide 66, condensed from hexamethylenediamine and adipic acid; melts around 40 °C above PA6[3]
Densityg/cm³1.04 (Polymaker PolyLite ABS and ABS Pro) to 1.06 (ABS Max), ISO 1183; Bambu Lab 1.05[4][1][5][6]1.14 (extruded unfilled PA66 stock)[7]
Typical priceUSD/kg1 kg spools cluster near 20[8][9][10][11][12]Not documented
Price range across brandsUSD/kg12–45 across brands; IEMAI 12, SUNLU 12 at a 3 kg minimum, ELEGOO 15 in a 5 kg pack, Polymaker 19, YXPOLYER 20, Bambu Lab 20, Push Plastic 25, 3DXTech 45[8][9][13][14][10][11][12][15]Not documented
Market availability1–5Ubiquitous, every brand and retailer[8][9][13][14]Special order, 1–2 makers worldwide — no unfilled PA66 filament appeared in any catalogue searched, and the 3DXTech nylon range offers PA6, PA12 and a 6/66 copolymer but no straight PA66[13][9]
Spool sizes & diameters1.75 and 2.85 mm; 1, 5 and 10 kg spools[13][14]Not documented
Typical applicationsEnclosures, automotive interior parts and tooling that must hold shape above PLA's 55 °C ceiling[1][16]Not documented
Printing Parameters
Nozzle temperature°C240–270 (Bambu Lab); 245–265 (Polymaker PolyLite)[4][1]Not documented
Bed temperature°C80–100 (Bambu Lab); 90–100 (Polymaker)[4][1]Not documented
Enclosure / chamber requirement1–5Enclosure recommended — Polymaker calls a chamber needed at ambient temperature, Bambu Lab requires an enclosed printer and rules out its P1P and A-series machines[1][17]Enclosure required (passive)[3]
Recommended chamber temperature°C45–60 (Bambu Lab)[4]Not documented
Part cooling fan0–80 % (Bambu Lab); off (Polymaker PolyLite)[4][1]Not documented
Bed surface & adhesion aidClean the plate and apply glue — Bambu Lab lists glue as the way to improve adhesion and prevent warping[17]Not documented
Maximum volumetric flow (mm³/s; see test conditions)mm³/s10–16 (PrusaSlicer guidance for ABS/ASA)[18]Not documented
Warping tendency1–5High — enclosure needed for reliable large parts; Bambu Lab attributes surface cracking to cooling stress exceeding interlayer adhesion[17]Not documented
Bed-adhesion difficulty1–5Needs a specific surface plus adhesive[17]Not documented
Stringing / oozing tendency1–5Slight[1]Not documented
Overall printing difficulty1–5Intermediate — dry filament and a tuned profile[17][1]Advanced — enclosure, hardware upgrades, tuning[3]
Hardware Wear & Reliability
Nozzle hardness required1–4Brass fine indefinitely[17]Not documented
Abrasiveness1–5Non-abrasive[17]Not documented
Nozzle clog risk1–5Low — no special hot-end required and clogging is not among the listed drawbacks; Prusa lists no drybox and no hardened nozzle[19][20]Very high — frequent jams without careful setup[21][22]
Heat-creep / jam sensitivity1–5Slightly sensitive[19]Not documented
Hotend requirementNo special hot-end required[19]Not documented
Moisture Behaviour
Moisture absorption (hygroscopicity)1–5Moderate — 0.65 % saturated at 25 °C / 55 % RH (Bambu Lab); Polymaker measures 0.51 % maximum uptake for ABS Pro[4][5]Very high (>2 %)[22]
Equilibrium moisture content at ~50 % RH%0.65 saturated at 25 °C / 55 % RH (Bambu Lab); 0.51 maximum (Polymaker ABS Pro)[4][5]8.5 at saturation on extruded PA66 stock (ASTM D570) — the highest uptake of any polymer in this dataset[7]
Drying temperature & time80 °C for 8 h (Bambu Lab); 70 °C for 6 h (Polymaker)[4][1]Not documented
Symptoms when wetBubbling and popping at the nozzle, stringing, rough surface and weak layers[22]Not documented
Effect of moisture on strengthPolymaker rates ABS moderate-sensitivity and publishes no dry-versus-conditioned figures; the loss appears as poor layer adhesion and surface defects rather than a stated strength delta[22]Measured dry against wet on printed specimens at 6.16 % moisture (Polymaker CoPA): tensile 78.0 → 34.3 MPa, Young's modulus 2703 → 724 MPa, flexural strength 109.8 → 22.6 MPa, while notched Charpy rises 6.9 → 27.7 kJ/m² and elongation 12.7 → 13.2 %[23][21]
Storage requirementSealed with desiccant; Polymaker rates ABS moderate-sensitivity and advises periodic drying in humid climates[22]Not documented
Mechanical Properties
Tensile strength (XY)MPa33 ± 3 (Bambu Lab) to 35 (Polymaker ABS Pro and Max) printed XY, ISO 527; 3DXTech quotes 42 at break[4][5][6][24]82.7 at yield and 84.8 at break on extruded PA66 stock (ASTM D638; converted from 12,000 and 12,300 psi) — no printed figure exists because no unfilled PA66 filament was found[7]
Young's modulusMPa2200 ± 190 (Bambu Lab) to 2330 (Polymaker ABS Pro) printed XY, ISO 527; 3DXTech quotes 1950[4][5][24]2413 on extruded PA66 stock (ASTM D638; converted from 350,000 psi)[7]
Elongation at break%6.7 (ABS Max) to 10.5 (Bambu Lab) at break, printed XY, ISO 527[4][5][6]50 at break on extruded PA66 stock (ASTM D638)[7]
Flexural strengthMPa60 (ABS Pro) to 63 (ABS Max) printed XY, ISO 178; Bambu Lab 62 ± 4; 3DXTech quotes 76[4][5][6][24]113.8 on extruded PA66 stock (ASTM D790; converted from 16,500 psi)[7]
Flexural modulusMPa1880 ± 110 (Bambu Lab) to 2500 (ABS Max) printed XY, ISO 178[4][6]3034 on extruded PA66 stock (ASTM D790; converted from 440,000 psi)[7]
Charpy impact, notchedkJ/m²10.5 (ABS Max) and 14.5 (ABS Pro) printed XY, ISO 179, notched; PolyLite ABS 18.0 ± 0.9 and Bambu Lab 21.5 ± 2.2[1][5][6][4]Not documented
Other impact dataCharpy unnotched 39.3 ± 3.6 printed XY (Bambu Lab, ISO 179); notched 21.5 ± 2.2[4]Izod 53 J/m on extruded PA66 stock, converted from 1.0 ft-lb/in (ASTM D256)[7]
Layer adhesion / Z tensileMPa21.9 (ABS Pro) to 29.7 (PolyLite) printed Z, ISO 527; Bambu Lab 28 ± 2[4][1][5]Not documented
Brittleness1–5Tough — absorbs impact, yields before breaking[4][1]Not documented
Hardness (scale-specific)Shore A / Shore D / RockwellNot documentedShore D 86 and Rockwell 85 (108) — the source does not name the scales on extruded PA66 stock (ASTM D2240, D785)[7]
Creep resistance / sustained load1–5Moderate — no printed-ABS creep test found; Tg of 101–126 °C keeps room-temperature service far below softening, unlike PLA[1][5][6]Not documented
Fatigue / repeated-flex resistance1–5Moderate — no printed-ABS S-N curve found; 10.5 % elongation and 21.5 kJ/m² notched Charpy give far more cyclic tolerance than PLA[4][25]Excellent — living hinges viable[3]
Elasticity / flexibility1–5Rigid[4]Semi-flexible[21]
Z strength as % of XY%85 (Bambu Lab, printed Z against XY tensile); 63 for Polymaker ABS Pro[4][5]Not documented
Wear resistance & frictionNot documentedWear factor 200e-10 in3*min/(ft*lb*h) on extruded PA66 stock (ASTM D3702); Ensinger lists very good slide and wear properties[7]
Thermal Properties
HDT at 0.45 MPa°C87 (Bambu Lab) to 118 (Polymaker ABS Max), ISO 75 at 0.45 MPa; PolyLite ABS 100[4][1][6]232 on extruded PA66 stock (ASTM D648 at 66 psi; converted from 450 °F)[7]
HDT at 1.8 MPa°C84 (Bambu Lab) to 113 (Polymaker ABS Max), ISO 75 at 1.8 MPa; PolyLite ABS 98[4][1][6]90 on extruded PA66 stock (ASTM D648 at 264 psi; converted from 194 °F) — the gap to the 0.45 MPa figure is the widest in the dataset[7]
Glass transition (Tg)°C101 (PolyLite) to 126 (ABS Max), DSC; 105 quoted by 3DXTech[1][6][24]Not documented
Melting point / Vicat°CAmorphous — no melting point; Vicat 104 (PolyLite) to 127 (ABS Max), ISO 306[1][6]255 melting on extruded PA66 stock (ASTM D2133; converted from 491 °F)[7]
Continuous service temperature°C101 measured on a loaded glass-filled ABS bar (My Tech Fun); unfilled ABS is bounded by its 84–98 °C heat deflection[26][4][1]85 long term and 149 short term on extruded PA66 stock (converted from 185 °F and 300 °F)[7]
Annealing responseDecomposition above 380 °C (PolyLite ABS, TGA)[1]Not documented
Thermal expansion (CTE)µm/m·K86 ± 3 at 0° and 89 ± 3 at 90° raster (printed, fibre Bragg grating, 25–50 °C); 82 for a neat large-format bead at 30 °C[27][28]81.0 (extruded PA66 stock, ASTM D696; source states 4.5e-5 in/in/°F)[7]
Flammability / UL 94Flammable; no UL 94 rating published for standard ABS, though V-0 grades exist[29][4]UL 94 V-2 on extruded PA66 stock[7]
Environment & Chemical
UV resistance1–5Months outdoors before embrittlement[16]Not documented
Chemical resistanceGood against weak acids, weak alkalis, oils and grease; poor against strong acids; dissolved by acetone[1]Not documented
Water / humidity resistance in service1–5Good — minor absorption[4]Not documented
Food contactNot food safe — Polymaker cites potential chemical leaching[16]Not documented
Biodegradability / compostabilityNot biodegradable[16]Not documented
RecyclabilityMechanically recyclable as resin code 9, but not accepted in household plastic collection[16]Not documented
Electrical & ESD propertiesSurface resistance above 10¹³ ohm/sq — insulating (3DXTech, ASTM D257)[24]Volume resistance 1e15 ohm-cm and dielectric constant 4 on extruded PA66 stock (ASTM D257, D150)[7]
Health & Safety
Fume toxicity1–5High — hazardous VOC such as styrene; enclosure and filtration needed[30][17]Moderate — measurable VOCs and UFPs, ventilation advised[30]
VOC emission rateµg/min12–113 styrene, the dominant VOC from every ABS and HIPS combination tested[30]Up to 180 caprolactam, the dominant VOC from nylon; total VOC reached nearly 200 µg/min, the highest of the nine filaments tested[30]
Ultrafine-particle emission rateparticles/min2 × 10¹⁰ to 9 × 10¹⁰ median across all ABS printers, two orders of magnitude above PLA's ≈1 × 10⁸[30]≈2 × 10⁸ median — low for ultrafine particles despite the highest VOC mass of any filament tested[30]
Hazardous species emittedStyrene dominates. Bambu Lab states ABS and ASA release harmful gases such as styrene at printing temperature, which can be toxic and cause dizziness or nausea[30][17]Caprolactam, at up to 180 µg/min from nylon filament — the largest single-VOC emission rate measured in the study[30]
Ventilation / filtration requirement1–5Enclosure with carbon and HEPA filtration — an enclosure alone cut measured UFP by only about 35 %[30][17]Ventilated room or enclosure recommended[30]
Post-Processing
Sanding & machiningSands well and takes filler; the usual preparation before painting[16]Not documented
Gluing & solvent weldingSolvent-welds with acetone[1]Not documented
Vapour / chemical smoothingAcetone vapour smoothing works — ABS dissolves in acetone[1]Not documented
Support material pairingHIPS breaks away or dissolves in d-limonene; Bambu Lab sells a dedicated Support for ABS[31][17]Not documented
Dimensional accuracy & detailWarping and cooling-stress cracking are the accuracy limits, not shrinkage of the melt[17]Not documented
Solvents & Solubility
Soluble inAcetone dissolves it — the basis of ABS slurry; so do MEK, THF, ethyl acetate, chloroform, dichloromethane and toluene.[32][1]Dissolved at 23 °C by formic acid above ~80 %, phenol, m-cresol, 96 % sulphuric acid or hexafluoroisopropanol — laboratory reagents.[33]
Softened or crazed byPetrol and perchloroethylene soften it and benzene attacks it; d-limonene disrupts layer adhesion in some ABS and ASA grades.[32][34]Zinc chloride solutions stress-crack it — 10 % marginal, 37 % not resistant; alcoholic calcium chloride dissolves it.[33]
Solvent welding & smoothing agentAcetone: about 20 min of vapour at 80 °C over 5 mm of liquid. Prusa measured layer adhesion more than doubled.[35]None — nylon's only solvents are formic acid, phenol and HFIP, all of which degrade the part they wet.[33]

Material entries describe families or representative grades, not an interchangeable specification for every spool. Test methods, orientations and conditions may differ. Unknown values are marked “Not documented”. Prices and source dates remain historical snapshots; check the linked guide for product details. Differences highlight text, not a universal winner.

Sources for this comparison

  1. PolyLite ABS Technical Data Sheet (V5.5 served at this URL) Polymaker · 2024-11 · tds
  2. Safety Data Sheet SDS20250724B00 — Bambu ABS Bambu Lab · 2025-07 · msds
  3. PA (Nylon) — material basics Polymaker Wiki · 2026-08 · doc
  4. Bambu Filament Technical Data Sheet V3.0 — ABS Bambu Lab · 2026-08 · tds
  5. Polymaker ABS Pro Technical Data Sheet V1 (2026-05-29) Polymaker · 2026-05 · tds
  6. Polymaker ABS Max Technical Data Sheet V1.1 (2026-06-01) Polymaker · 2026-06 · tds
  7. TECAMID 66 natural (PA66) — stock shape properties Ensinger · 2026-08 · tds
  8. ABS — product page Bambu Lab US Store · 2026-08 · vendor
  9. Polymaker product catalogue Polymaker · 2026-08 · vendor
  10. Push Plastic product catalogue Push Plastic · 2026-08 · vendor
  11. SUNLU ABS 3D Printer Filament 1 kg SUNLU · 2026-08 · vendor
  12. IEMAI ABS 3D Printing Filament product page IEMAI 3D · 2026-08 · vendor
  13. 3DXTech product catalogue 3DXTech · 2026-08 · vendor
  14. ELEGOO product catalogue ELEGOO · 2026-08 · vendor
  15. YXPOLYER ABS Squirrel Grey product page YXPOLYER · 2026-08 · vendor
  16. ABS — material basics Polymaker Wiki · 2026-08 · doc
  17. ABS / ASA / PC Usage Guide Bambu Lab Wiki · 2026-08 · doc
  18. Max volumetric speed Prusa Knowledge Base · 2026-08 · doc
  19. ABS — Ultimate 3D Printing Materials Guide Simplify3D · 2026-08 · doc
  20. Filament Material Guide Prusa Knowledge Base · 2026-08 · doc
  21. Moisture Conditioning — effect on printed nylon properties Polymaker Wiki · 2026-08 · doc
  22. Wet Filament — signs, causes and drying Polymaker Wiki · 2026-08 · doc
  23. PolyMide CoPA Technical Data Sheet V5.4 (dry and wet status blocks) Polymaker · 2024-11 · tds
  24. 3DXMAX ABS Technical Data Sheet 3DXTech · 2026-08 · tds
  25. Mechanical Properties of Additively Manufactured Polymeric Materials — PLA and PETG — For Biomechanical Applications Polymers 16(13):1868 · 2024-06 · paper
  26. ABS-GF vs PET-CF — results spreadsheet My Tech Fun (Igor Gaspar) · 2026-08 · test
  27. Characterization of Thermal Expansion Coefficient of 3D Printing Polymeric Materials Using Fiber Bragg Grating Sensors Materials 17(18):4668 · 2024-09 · paper
  28. Effects of Fiber Orientation on the Coefficient of Thermal Expansion of Fiber-Filled Polymer Systems in Large Format Polymer Extrusion-Based Additive Manufacturing Materials 15(8):2764 · 2022-04 · paper
  29. Firewire Flame Retardant ABS Technical Data Sheet 3DXTech · 2026-08 · tds
  30. Emissions of Ultrafine Particles and Volatile Organic Compounds from Commercially Available Desktop Three-Dimensional Printers with Multiple Filaments (Azimi et al.) Environmental Science & Technology 50(3) 1260-1268 · 2016-01 · paper
  31. HIPS — Ultimate 3D Printing Materials Guide Simplify3D · 2026-08 · doc
  32. Chemical resistance — resistance of Ensinger plastics to chemicals (DIN 50 014, 23/50) Ensinger · 2026-08 · tds
  33. Ultramid Nylon Chemical Resistance guide (unmodified PA6 B27E and PA66 A27E) BASF · 2026-08 · tds
  34. HIPS — Knowledge Base Prusa Research · 2026-08 · doc
  35. Improve your 3D prints with chemical smoothing Prusa Research · 2026-08 · doc