Filament comparison
ABS+ vs PEEK-CF
Compare printing settings, strength, heat resistance, dated prices and sources.
2 selected · all documented properties
| Property | ABS+ / Tough ABSABS | Fibre-reinforced PEEKHIGHTEMP |
|---|---|---|
| Market snapshot | ||
| Listing priceUSD/kg; dated snapshots | $26.49/kg median; $15.99–$29.99/kg across 4 dated product listings | $597.50/kg median; $448.00–$695.00/kg across 5 dated product listings |
| Identity & Market | ||
| Base polymer / chemistry | ABS reformulated for lower warping and a higher glass transition; Polymaker's ABS Pro and ABS Max reach Tg 114.9 and 126.3 °C against 101 °C for PolyLite ABS[1][2][3] | Short-fibre reinforced PEEK. 3DXTech's CarbonX grade is nominally 10 wt% carbon and its FibreX grade 20 wt% glass; LEHVOSS Luvocom 3F PEEK CF 9676 is 15 wt% carbon; Ensinger's machining stock runs to 30 wt% carbon[4][5][6][7] |
| Densityg/cm³ | 1.04 (ABS Pro) and 1.06 (ABS Max), ISO 1183[1][2] | 1.39 (ISO 1183)[4] |
| Typical priceUSD/kg | 1 kg spools cluster near 27[8] | 1 kg-equivalent spools span 448–972; the middle of the market is about 598[5][6][9] |
| Price range across brandsUSD/kg | 16–30 across brands; SUNLU E-ABS 16, Polymaker ABS Pro 25, YXPOLYER ABS Enhanced 28, Polymaker ABS Max 30[8][10][11] | 448-972 across formats and filler types; IEMAI 3D CF-PEEK and GF-PEEK 448 at 1 kg, 3DXTech CarbonX PEEK+CF10 598 at 2 kg and FibreX PEEK+GF20 695 at 1 kg, Luvocom 3F PEEK CF 9676 648 at 2 kg[5][6][9][12] |
| Market availability1–5 | Available from several mainstream brands[8] | Niche, a handful of specialist brands[5][6] |
| Spool sizes & diameters | 1.75 and 2.85 mm; 1 kg spools[8] | 1.75 and 2.85 mm; 200 g to 2 kg spools[5][6] |
| Typical applications | Large enclosure and automotive parts where plain ABS warps or softens too early[1][2] | Stiff aerospace and oil-and-gas parts where PEEK alone is not rigid enough[4] |
| Printing Parameters | ||
| Nozzle temperature°C | 270–290 (ABS Pro); 270–300 (ABS Max) — 25–35 °C above plain ABS[1][2] | Not documented |
| Bed temperature°C | 120 (ABS Max)[2] | Not documented |
| Enclosure / chamber requirement1–5 | Enclosure required (passive)[1][2][13] | Actively heated chamber required[14][15] |
| Bed surface & adhesion aid | Clean the plate and apply glue; Simplify3D also lists Kapton tape and ABS slurry[13][16] | Not documented |
| Maximum volumetric flow (mm³/s; see test conditions)mm³/s | Up to 250 mm/s (ABS Pro) and 200 mm/s (ABS Max), equivalent to 20 and 16 on a 0.4 mm nozzle at 0.2 mm layer[1][2][17] | Not documented |
| Warping tendency1–5 | High — enclosure needed for reliable large parts[13] | Moderate — needs adhesion aid or draught shield; the fibre cuts PEEK's crystallisation shrinkage[4] |
| Bed-adhesion difficulty1–5 | Needs a specific surface plus adhesive[13] | Not documented |
| Stringing / oozing tendency1–5 | Slight — Polymaker advises 1–2 mm retraction at 20–30 mm/s[18] | Not documented |
| Overall printing difficulty1–5 | Intermediate — dry filament and a tuned profile; the hotter nozzle rules out PTFE-lined hotends[1][2] | Expert / industrial hardware only[14][15] |
| Hardware Wear & Reliability | ||
| Nozzle hardness required1–4 | Brass fine indefinitely[13] | Hardened steel required[4] |
| Abrasiveness1–5 | Non-abrasive[13] | Highly abrasive — standard CF composite[4] |
| Nozzle clog risk1–5 | Low — unfilled ABS compound; no special hot-end required and clogging is not among the listed drawbacks[16][19] | High — jams from moisture, heat creep or particles; 3DXTech adds a hardened 0.4 mm minimum nozzle and 0.25 mm layers to the mandatory 120 °C pre-dry[20][21] |
| Heat-creep / jam sensitivity1–5 | Slightly sensitive[16] | Not documented |
| Hotend requirement | No special hot-end required[16] | Not documented |
| Moisture Behaviour | ||
| Moisture absorption (hygroscopicity)1–5 | Moderate — 0.51 % maximum water absorption (ABS Pro)[1] | Not documented |
| Equilibrium moisture content at ~50 % RH% | 0.51 maximum water absorption (Polymaker ABS Pro)[1] | 0.06 in 24 h on extruded CF30 stock (ASTM D570)[7] |
| Drying temperature & time | 70 °C for 6 h (ABS Max)[2] | Not documented |
| Symptoms when wet | Bubbling and popping at the nozzle, stringing and a rough surface[22] | Not documented |
| Effect of moisture on strength | Polymaker rates ABS moderate-sensitivity and publishes no dry-versus-conditioned figures[22] | No dry-versus-conditioned figures are published; 3DXTech mandates a 120 °C, 4 h pre-dry before every print because trapped water flashes to steam at these nozzle temperatures[20] |
| Storage requirement | Sealed with desiccant; Polymaker rates ABS moderate-sensitivity[22] | Not documented |
| Mechanical Properties | ||
| Tensile strength (XY)MPa | 34.9 (ABS Pro) and 35.7 (ABS Max) printed XY, ISO 527[1][2] | 105 at break (printed XY, ISO 527, CF10); 121 at yield on extruded CF30 stock (ASTM D638)[4][7] |
| Young's modulusMPa | 2330 (ABS Pro) and 2320 (ABS Max) printed XY, ISO 527[1][2] | 8100 (printed XY, ISO 527, CF10) — more than double unfilled PEEK; 6343 on extruded CF30 stock (ASTM D638)[4][7] |
| Elongation at break% | 6.7 (ABS Max) and 7.3 (ABS Pro) at break, printed XY, ISO 527[1][2] | 3 at break (printed XY, ISO 527), against 28 for unfilled PEEK[4][23] |
| Flexural strengthMPa | 60.1 (ABS Pro) and 63.3 (ABS Max) printed XY, ISO 178[1][2] | 136 (printed XY, ISO 178, CF10); 193 on extruded CF30 stock (ASTM D790)[4][7] |
| Flexural modulusMPa | 2330 (ABS Pro) and 2500 (ABS Max) printed XY, ISO 178[1][2] | 8300 (printed XY, ISO 178, CF10); 7171 on extruded CF30 stock (ASTM D790)[4][7] |
| Charpy impact, notchedkJ/m² | 10.5 (ABS Max) and 14.5 (ABS Pro) printed XY, ISO 179, notched[1][2] | Not documented |
| Other impact data | Not documented | Izod notched 61.9 J/m on extruded CF30 stock, converted from 1.16 ft-lb/in (ASTM D256)[7] |
| Layer adhesion / Z tensileMPa | 21.9 (ABS Pro) and 25.4 (ABS Max) printed Z, ISO 527[1][2] | Not documented |
| Brittleness1–5 | Tough — absorbs impact, yields before breaking[1][2] | Brittle — snaps with little warning; elongation falls from 28 % to 3 %[4][23] |
| Hardness (scale-specific)Shore A / Shore D / Rockwell | Not documented | Rockwell M107 on extruded PEEK-CF30 stock (ASTM D785), against M100 unfilled[7][24] |
| Creep resistance / sustained load1–5 | Moderate — no creep test found; Tg of 115 °C (ABS Pro) and 126 °C (ABS Max) keeps room-temperature service far below softening[1][2] | Excellent — holds load for years. Ensinger rates carbon-fibre PEEK stock as very highly creep resistant and specifies 260 °C continuous service[7] |
| Fatigue / repeated-flex resistance1–5 | Moderate — no S-N curve found; 6.7–7.3 % elongation and 10.5–14.5 kJ/m² notched Charpy, below unfilled Bambu Lab ABS[1][2][25] | Good. Victrex rates PEEK for long-term fatigue as well as creep; the fibre cuts elongation at break from 28 % to 3 %, which limits repeated large-strain flexing[26][4][23] |
| Elasticity / flexibility1–5 | Rigid[1] | Rigid[4] |
| Z strength as % of XY% | 63 (ABS Pro) and 71 (ABS Max), printed[1][2] | Not documented |
| Thermal Properties | ||
| HDT at 0.45 MPa°C | 106.4 (ABS Pro) and 118.1 (ABS Max), ISO 75 at 0.45 MPa[1][2] | 265 (printed XY, ISO 75 at 0.45 MPa, CarbonX PEEK+CF10) against 140 for unfilled PEEK[4][23] |
| HDT at 1.8 MPa°C | 101.4 (ABS Pro) and 113.1 (ABS Max), ISO 75 at 1.8 MPa[1][2] | 316 on extruded CF30 stock, converted from 600 °F at 264 psi (ASTM D648)[7] |
| Glass transition (Tg)°C | 114.9 (ABS Pro) and 126.3 (ABS Max), DSC[1][2] | 143 (DSC, CarbonX PEEK+CF10) — the fibre does not move the glass transition[4] |
| Melting point / Vicat°C | Amorphous — no melting point; Vicat 116.1 (ABS Pro) and 127.4 (ABS Max), ISO 306[1][2] | 334 melting on extruded CF30 stock, converted from 633 °F[7] |
| Continuous service temperature°C | Not documented | 260 long-term on extruded CF30 stock, converted from 500 °F; 300 short term[7] |
| Thermal expansion (CTE)µm/m·K | 86–89 for printed unfilled ABS (fibre Bragg grating, 25–50 °C); no grade-specific measurement published[27] | 14.4 (extruded PEEK-CF30 stock, ASTM D696; source states 0.80e-5 in/in/°F) — about a third of unfilled PEEK[7][24] |
| Flammability / UL 94 | Not documented | UL 94 V-0 on the base resin; Ensinger lists extruded PEEK-CF30 stock as inherently flame resistant[23][7] |
| Environment & Chemical | ||
| UV resistance1–5 | Months outdoors before embrittlement[18] | Not documented |
| Chemical resistance | Good against weak acids, weak alkalis, oils and grease; dissolved by acetone[3] | Not documented |
| Food contact | Not food safe — Polymaker cites potential chemical leaching[18] | Not documented |
| Biodegradability / compostability | Not biodegradable[18] | Not documented |
| Recyclability | Mechanically recyclable but not accepted in household plastic collection[18] | Not documented |
| Electrical & ESD properties | Not documented | Surface resistance above 10⁹ ohm/sq — not static-dissipative (ASTM D257)[4] |
| Health & Safety | ||
| Fume toxicity1–5 | High — hazardous VOC such as styrene; enclosure and filtration needed[28][13] | Moderate — measurable VOCs and UFPs, ventilation advised. None of these polymers was in the chamber study, and all are processed far above the temperatures it covered[28] |
| VOC emission rateµg/min | 12–113 styrene, the dominant VOC from every ABS and HIPS combination tested[28] | Not documented |
| Ultrafine-particle emission rateparticles/min | 2 × 10¹⁰ to 9 × 10¹⁰ median across all ABS printers, two orders of magnitude above PLA's ≈1 × 10⁸[28] | Not documented |
| Hazardous species emitted | Styrene 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[28][13] | Not documented |
| Ventilation / filtration requirement1–5 | Enclosure with carbon and HEPA filtration — an enclosure alone cut measured UFP by only about 35 %[28][13] | Ventilated room or enclosure recommended[28] |
| Dust & fibre handling hazard | Not documented | Carbon fibre is bound in the matrix; sanding dust should not be inhaled[4] |
| Post-Processing | ||
| Sanding & machining | Sands well and takes filler before painting[18] | Not documented |
| Painting & finishing | Paints readily after light abrasion[18] | Not documented |
| Vapour / chemical smoothing | Acetone vapour smoothing works[3] | Not documented |
| Support material pairing | HIPS breaks away or dissolves in d-limonene; Bambu Lab sells a dedicated Support for ABS[29][13] | Not documented |
| Solvents & Solubility | ||
| Soluble in | Acetone dissolves it — the basis of ABS slurry; so do MEK, THF, ethyl acetate, chloroform, dichloromethane and toluene.[30][3] | 95–98 wt% sulphuric acid dissolves the matrix at 40–70 °C and leaves the fibre. Nothing else touches PEEK.[31][30] |
| Softened or crazed by | Petrol and perchloroethylene soften it and benzene attacks it; d-limonene disrupts layer adhesion in some ABS and ASA grades.[30][32] | Concentrated nitric, hydrofluoric, hydrobromic and hydriodic acids attack it; DCM, DMSO and THF swell thin-walled sections.[33][30] |
| Solvent welding & smoothing agent | Acetone: about 20 min of vapour at 80 °C over 5 mm of liquid. Prusa measured layer adhesion more than doubled.[34] | None — no solvent softens PEEK, so parts are joined thermally or mechanically, never chemically.[33][30] |
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
- Polymaker ABS Pro Technical Data Sheet V1 (2026-05-29) Polymaker · 2026-05 · tds
- Polymaker ABS Max Technical Data Sheet V1.1 (2026-06-01) Polymaker · 2026-06 · tds
- PolyLite ABS Technical Data Sheet (V5.5 served at this URL) Polymaker · 2024-11 · tds
- CarbonX Carbon Fiber PEEK Technical Data Sheet v3 3DXTech · 2026-08 · tds
- 3DXTech product catalogue 3DXTech · 2026-08 · vendor
- 3D4Makers product catalogue 3D4Makers · 2026-08 · vendor
- TECAPEEK CF30 black (PEEK-CF30) — stock shape properties Ensinger · 2026-08 · tds
- Polymaker product catalogue Polymaker · 2026-08 · vendor
- IEMAI 3D CF-PEEK 3D Printing Filament — store page IEMAI 3D · 2026-08 · vendor
- SUNLU E-ABS (Easy ABS) 3D Printer Filament 1 kg SUNLU · 2026-08 · vendor
- YXPOLYER ABS Enhanced product page YXPOLYER · 2026-08 · vendor
- IEMAI 3D GF-PEEK 3D Printing Filament — store page IEMAI 3D · 2026-08 · vendor
- ABS / ASA / PC Usage Guide Bambu Lab Wiki · 2026-08 · doc
- Prusament PEI 1010 Technical Datasheet v1.0 Prusa Polymers · 2024-09 · tds
- Prusament PEI 1010 — material page Prusa Polymers · 2026-08 · doc
- ABS — Ultimate 3D Printing Materials Guide Simplify3D · 2026-08 · doc
- Max volumetric speed Prusa Knowledge Base · 2026-08 · doc
- ABS — material basics Polymaker Wiki · 2026-08 · doc
- Filament Material Guide Prusa Knowledge Base · 2026-08 · doc
- CARBONX PEEK+CF10 — product page (print recommendations) 3DXTech · 2026-08 · doc
- Composite materials filled with carbon, kevlar or glass Prusa Knowledge Base · 2026-08 · doc
- Wet Filament — signs, causes and drying Polymaker Wiki · 2026-08 · doc
- ThermaX PEEK Technical Data Sheet v3 3DXTech · 2026-08 · tds
- TECAPEEK natural (PEEK) — stock shape properties Ensinger · 2026-08 · tds
- Bambu Filament Technical Data Sheet V3.0 — ABS Bambu Lab · 2026-08 · tds
- PEEK polymers — product overview Victrex · 2026-08 · doc
- Characterization of Thermal Expansion Coefficient of 3D Printing Polymeric Materials Using Fiber Bragg Grating Sensors Materials 17(18):4668 · 2024-09 · paper
- 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
- HIPS — Ultimate 3D Printing Materials Guide Simplify3D · 2026-08 · doc
- Chemical resistance — resistance of Ensinger plastics to chemicals (DIN 50 014, 23/50) Ensinger · 2026-08 · tds
- The Effects of Sulfonated Poly(ether ether ketone) Ion Exchange Preparation Conditions on Membrane Properties Yee, Zhang & Ladewig, Membranes 3(3) 182–195 · 2013-07 · paper
- HIPS — Knowledge Base Prusa Research · 2026-08 · doc
- What solvents are not compatible with PEEK? — fluidics technical FAQ IDEX Health & Science · 2026-08 · doc
- Improve your 3D prints with chemical smoothing Prusa Research · 2026-08 · doc