PPA-CF
8 products from 6 makers. Most documented first. Select a column to sort, a product to see its values, print settings and documents.
8 products
Key
- set apart: test bar not described as printed, or no stated load
- measured after annealing
- from the Bambu Lab Filament Guide
- Izod where no Charpy is published
- shared data sheet
- hardened nozzle
- not published
How the numbers are worked out
Bambu Lab PPA-CFStrength XY, MPa168Strength Z, MPa57Modulus XY, GPa11.8Charpy notched, kJ/m²6.5HDT 0.45, °C227HDT 1.8, °C196Price, CAD/kg255Nozzle, °C280–310Bed, °C100–120Chamber, °C50–80Drying, °C, h100–1408–12 h
Bambu Lab PPA-CFBambu Lab
Published values
| Property | As published | Conditions | On the Overview |
|---|---|---|---|
Bambu Lab, Bambu Filament Technical Data Sheet - PPA-CF22 valuesUnless a row says otherwise: printed specimenas printedAll the specimens were not annealed before testingprint settingsSpecimen Printing Conditions Subjects Data Nozzle Temperature 290 °C Bed Temperature 110 °C Printing Speed 80 mm/s Infill Density 100% * All the specimens were printed at the following settings: Printer = X1C, Chamber Temperature = 52 °C, Nozzle Temperature = 290 °C, Printing Speed = 80 mm/s, Bed Temperature = 110 °C, Infill Density = 100%. If higher chamber temperature were | |||
| Tensile modulus XY | 11800 ± 670 MPap. 2: Young's Modulus (X-Y) | ISO 527, GB/T 1040 | in the median |
| Tensile modulus Z | 4300 ± 340 MPap. 2: Young's Modulus (Z) | ISO 527, GB/T 1040 | in the median |
| Tensile strength (yield or break not stated) XY | 168 ± 4 MPap. 2: Tensile Strength (X-Y) | ISO 527, GB/T 1040 | in the median |
| Tensile strength (yield or break not stated) Z | 57 ± 5 MPap. 2: Tensile Strength (Z) | ISO 527, GB/T 1040 | in the median |
| Elongation at break XY | 3.2 ± 0.4 %p. 2: Breaking Elongation Rate (X-Y) | ISO 527, GB/T 1040 | in the median |
| Elongation at break Z | 0.9 ± 0.2 %p. 2: Breaking Elongation Rate (Z) | ISO 527, GB/T 1040 | in the median |
| Flexural modulus XY | 9860 ± 480 MPap. 2: Bending Modulus (X-Y) | ISO 178, GB/T 9341 | in the median |
| Flexural modulus Z | 3240 ± 360 MPap. 2: Bending Modulus (Z) | ISO 178, GB/T 9341 | in the median |
| Flexural strength XY | 208 ± 6 MPap. 2: Bending Strength (X-Y) | ISO 178, GB/T 9341 | in the median |
| Flexural strength Z | 63 ± 4 MPap. 2: Bending Strength (Z) | ISO 178, GB/T 9341 | in the median |
| Charpy impact strength XY | 41.7 ± 2.8 kJ/m²p. 2: Impact Strength (X-Y) | ISO 179, GB/T 1043 | not in the median: notch not stated |
| Charpy impact strength XY | 6.5 ± 2.3 kJ/m² (notched)p. 2: Impact Strength (X-Y) (notched) | ISO 179, GB/T 1043 | in the median |
| Charpy impact strength Z | 4.3 ± 0.4 kJ/m²p. 2: Impact Strength (Z) | ISO 179, GB/T 1043 | not in the median: notch not stated |
| HDT at 0.45 MPa | 227 °Cp. 2: Heat Deflection Temperature | ISO 75As the sheet prints it: ISO 75 0.45 MPa | in the median |
| HDT at 1.8 MPa | 196 °Cp. 2: Heat Deflection Temperature | ISO 75As the sheet prints it: ISO 75 1.8 MPa | in the median |
| Glass transition temperature | 85 °Cp. 2: Glass Transition Temperature | DSCAs the sheet prints it: DSC , 10 °C/min | in the median |
| Vicat softening temperature | 232 °Cp. 2: Vicar Softening Temperature | ISO 306, GB/T 1633 | |
| Melting temperature | 258 °Cp. 2: Melting Temperature | DSCAs the sheet prints it: DSC, 10 °C/min | |
| Crystallization temperature | 178 °Cp. 2: Crystallization Temperature | DSCAs the sheet prints it: DSC , 10 °C/min | |
| Density | 1.25 g/cm³p. 2: Density | specimen not stated, ISO 1183 | |
| Water absorption | 1.30 %p. 2: Saturated Water Absorption Rate | no standard namedAs the sheet prints it: ate 25 °C, 55% RH | |
| Melt mass-flow rate | 8.4 ± 0.7 g/10 minp. 2: Melt Index | specimen not stated, no standard namedAs the sheet prints it: 280 °C, 2.16 kg | |
| Bambu Lab, Bambu Lab PPA-CF safety data sheet1 value | |||
| Fibre content | 12-18 %p. 4: Carbon Fiber | no standard stated | |
Print settings
- Nozzle
- 280–310 °Cown data sheet
- Bed
- 100–120 °Cown data sheet
- Heated chamber
- 50–80 °Cown data sheet
- Drying
- 100–140 °C for 8–12 hown data sheet
- Hardened nozzle
- neededBambu Lab Filament Guide
Its print profile, in the documents' words
- Nozzle 280 - 310 °C; Bed 100 - 120°C; Chamber 50 - 80 °C; Drying Blast Drying Oven: 100 - 140 °C, 8 - 12 hBambu Lab, Bambu Filament Technical Data Sheet - PPA-CFRecommended printing settings; p. 1: Drying Settings before Printing: Blast Drying Oven
Price
255 CAD/kgthe median of its 2 regular prices in the sample
2 listings
- Bambu Lab Canada: 255 CAD/kgPPA-CF - Black (73100) / Filament with spool / 0.75 kgin its price; seen 10 Sep 2026
- 3D Printing Canada: 255 CAD/kgBlack - Bambu Lab PPA-CF Filament - 1.75mm, 0.75kg / Default Titlein its price; seen 10 Sep 2026
Its 4 documents
What the maker says (8)
- Good for
engineering applications, from mechanical prototypes to automotive components.
Bambu Lab, Bambu Filament Technical Data Sheet - PPA-CFp. 1 - Precision and tolerance
Bambu PPA-CF - a premium fiber-reinforced nylon, delivers industrial-grade printing quality with precise 1:1 reproduction.
Bambu Lab, Bambu Filament Technical Data Sheet - PPA-CFp. 1 - Supports and removal
Support Material Support for PA/PET
Bambu Lab, Bambu Filament Technical Data Sheet - PPA-CFp. 2 - Odour and emissions
Odor Odorless
Bambu Lab, Bambu Filament Technical Data Sheet - PPA-CFp. 3 - Printing advice
If higher chamber temperature were used (i.g., 70 - 80 °C), higher mechanical properties would be obtained, especially the Z-direction's.
Bambu Lab, Bambu Filament Technical Data Sheet - PPA-CFp. 3 - Good for
PPA-CF offers strength approaching metal levels, being 48% stronger and 102% stiffer than normal PA6-CF. This filament excels in mechanical properties, making it ideal for high-performance engineering applications. Perfect for repairs, it can effectively replace automotive and industrial parts with exceptional durability and reliability.
Bambu Lab, PPA-CF official maker product pagep. 1: exact product features/description/application tips, source text line 115 - Benefits
Bambu PPA-CF supports long-term, stable use in humid environments, even underwater. With a moisture absorption rate 66% lower than normal PA6-CF, it maintains its stiffness and thermal properties over time. Whether printing propellers, customizing surfboards, or any other water-resistant application, PPA-CF delivers reliable performance.
Bambu Lab, PPA-CF official maker product pagep. 1: exact product features/description/application tips, source text line 122 - Benefits
Bambu PPA-CF boasts unmatched heat resistance, capable of withstanding prolonged exposure to temperatures up to 227°C without compromising its structural integrity or performance. This filament remains reliable and robust in extreme environments, making it perfect for industrial, mechanical, or automotive parts that must tolerate ultra-high temperatures.
Bambu Lab, PPA-CF official maker product pagep. 1: exact product features/description/application tips, source text line 124
Specimen preparation (1)
All the specimens were not annealed before testing
Bambu Lab, Bambu Filament Technical Data Sheet - PPA-CFTest specimen preparation
Chemicals and environment (7)
- Water solubility: insoluble
Insoluble in water
Bambu Lab, Bambu Filament Technical Data Sheet - PPA-CFSolubility - Acid resistance: described in words
Better than general Nylon; resistant to weak acids, but not resistant to strong acids
Bambu Lab, Bambu Filament Technical Data Sheet - PPA-CFResistance to Acid - Alkali resistance: described in words
Better than general Nylon; resistant to weak alkalis, but not resistant to strong alkalis
Bambu Lab, Bambu Filament Technical Data Sheet - PPA-CFResistance to Alkali - Organic solvent resistance: described in words
Better than general Nylon; resistant to most kinds of organic solvents
Bambu Lab, Bambu Filament Technical Data Sheet - PPA-CFResistance to Organic Solvent - Oil and grease resistance: described in words
Better than general Nylon; resistant to most kinds of oil
Bambu Lab, Bambu Filament Technical Data Sheet - PPA-CFResistance to Oil and Grease - Flammability: flammable
Flammable
Bambu Lab, Bambu Filament Technical Data Sheet - PPA-CFFlammability - Post-processing: described in words
the suggested annealing temperature of models printed with Bambu PPA-CF is 120 to 140 °C, and the time is 6 to 12 hours.
Bambu Lab, Bambu Filament Technical Data Sheet - PPA-CFp. 3: Annealing note
Flashforge PPA-CFStrength XY, MPa108Strength Z, MPa—Modulus XY, GPa7.1Charpy notched, kJ/m²9IzodHDT 0.45, °C220HDT 1.8, °C—Price, CAD/kg—Nozzle, °C255–275Bed, °C80–100Chamber, °C25–80Drying, °C, h120≥ 8 h
Flashforge PPA-CFFlashforge
Data sheet shared with SIDDAMENT PPA-CF: their values are one table, recorded once.
Published values
| Property | As published | Conditions | On the Overview |
|---|---|---|---|
| Flashforge, Technical Data Sheet PPA-CF Filament17 values | |||
| Tensile modulus XY | 7100-8000 Mpap. 1: Modulus of Elasticity (X-Y) ISO 527 Mpa | ISO 527print settingsTest Equipment Guider 3 Ultra (Flashforge); Nozzle Diameter 0.4mm; Nozzle Temperature 270 °C; Printing Speed 200mm/s; Wall Thickness 0.4mm; Infill 100% | in the median |
| Tensile strength (yield or break not stated) XY | 108-112 Mpap. 1: Tensile Strength (X-Y) ISO 527 Mpa | ISO 527print settingsTest Equipment Guider 3 Ultra (Flashforge); Nozzle Diameter 0.4mm; Nozzle Temperature 270 °C; Printing Speed 200mm/s; Wall Thickness 0.4mm; Infill 100% | in the median |
| Elongation at break XY | 3.5-5 %p. 1: Elongation at Break (X-Y) ISO 527 % | ISO 527print settingsTest Equipment Guider 3 Ultra (Flashforge); Nozzle Diameter 0.4mm; Nozzle Temperature 270 °C; Printing Speed 200mm/s; Wall Thickness 0.4mm; Infill 100% | in the median |
| Flexural modulus XY | 6500-7000 Mpap. 1: Bending Modulus (X-Y) ISO178 Mpa | ISO 178print settingsTest Equipment Guider 3 Ultra (Flashforge); Nozzle Diameter 0.4mm; Nozzle Temperature 270 °C; Printing Speed 200mm/s; Wall Thickness 0.4mm; Infill 100% | in the median |
| Flexural modulus Z | 2520-2620 Mpap. 1: Bending Modulus (Z) ISO178 Mpa | ISO 178print settingsTest Equipment Guider 3 Ultra (Flashforge); Nozzle Diameter 0.4mm; Nozzle Temperature 270 °C; Printing Speed 200mm/s; Wall Thickness 0.4mm; Infill 100% | in the median |
| Flexural strength XY | 210-221 Mpap. 1: Bending Strength (X-Y) ISO178 Mpa | ISO 178print settingsTest Equipment Guider 3 Ultra (Flashforge); Nozzle Diameter 0.4mm; Nozzle Temperature 270 °C; Printing Speed 200mm/s; Wall Thickness 0.4mm; Infill 100% | in the median |
| Flexural strength Z | 70-75 Mpap. 1: Bending Strength (Z) ISO178 Mpa | ISO 178print settingsTest Equipment Guider 3 Ultra (Flashforge); Nozzle Diameter 0.4mm; Nozzle Temperature 270 °C; Printing Speed 200mm/s; Wall Thickness 0.4mm; Infill 100% | in the median |
| Izod impact strength XY | 9-11 KJ/m2p. 1: Izod Impact Strength (X-Y) ISO180 KJ/m2 | ISO 180notchedprint settingsTest Equipment Guider 3 Ultra (Flashforge); Nozzle Diameter 0.4mm; Nozzle Temperature 270 °C; Printing Speed 200mm/s; Wall Thickness 0.4mm; Infill 100% | in the median |
| Izod impact strength Z | 2.5-3 KJ/m2p. 2: Izod Impact Strength (Z) ISO180 KJ/m2 | ISO 180notchedprint settingsTest Equipment Guider 3 Ultra (Flashforge); Nozzle Diameter 0.4mm; Nozzle Temperature 270 °C; Printing Speed 200mm/s; Wall Thickness 0.4mm; Infill 100% | not in the median: measured on a bar in another orientation |
| HDT | 220 °Cp. 1: heat deflection temperature of up to | no standard stated | not in the median: another value of this product is in it |
| HDT at 0.45 MPa | 220 ℃p. 2: HDT@ 0.455 MPa (66 psi) ISO75 ℃ | ISO 75As the sheet prints it: 0.455 MPa 66 psi ISO75 | in the median |
| Continuous service temperature | 120 ℃p. 2: Continuous Service Temperature IEC 60216 ℃ | IEC 60216 | |
| Density | 1.21-1.23 g/cm³p. 1: Density ISO 1183 g/cm³ | ISO 1183 | |
| Water absorption | 0.1 %p. 1: Water Absorption (23℃/24h) ISO 62 % | ISO 62As the sheet prints it: 23℃/24h ISO 62 | |
| Melt mass-flow rate | 35-40 g/10minp. 1: Melt Flow Rate (MFR) (280℃/5Kg) ISO 1133 g/10min | ISO 1133As the sheet prints it: MFR 280℃/5Kg ISO 1133 | |
| Surface resistivity | 10^3 Ωtranscription correctedp. 2: Surface Resistance IEC 60093 Ω | IEC 60093 | |
| Fibre content | 10% carbon fiberp. 1: Fibre content | no standard stated | |
Print settings
- Nozzle
- 255–275 °Cown data sheet
- Bed
- 80–100 °Cown data sheet
- Heated chamber
- 25–80 °Cown data sheet
- Drying
- optional: 120 °C for ≥ 8 hown data sheet
- Hardened nozzle
- neededown data sheet
Its print profile, in the documents' words
- Nozzle 255~275℃ (270℃ recommended); Bed 80~100℃ (90℃ recommended); Chamber Room temperature~80℃; Drying In case the filament has become wet, it should be dried before being used; Using a hot dry air oven at 120℃ for at least 8 hours is recommendedFlashforge, Technical Data Sheet PPA-CF Filamentp. 2: Recommended printing settings: Nozzle Temperature; p. 2: Ambient Temperature for Printing; p. 3: Drying note; p. 2: Nozzle Diameter (recommended printing settings)
Price
Not in the price sample.
Its 2 documents
What the maker says (7)
- Benefits
High rigidity/High strength/High-temperature resistance/Low creep
Flashforge, Technical Data Sheet PPA-CF Filamentp. 1 - Benefits
It is a modified polyphthalamide (PPA) containing 10% carbon fiber, offering high-temperature resistance, low moisture absorption, and low shrinkage, with the ability to be printable on non-heated chamber FFF 3D printers.
Flashforge, Technical Data Sheet PPA-CF Filamentp. 1 - Benefits
Models printed with PPA-CF exhibit excellent tensile and impact strength, with a heat deflection temperature of up to 220°C. It also provides outstanding creep resistance at high temperatures, minimizing the impact of humidity and temperature on dimensional stability and electrical properties.
Flashforge, Technical Data Sheet PPA-CF Filamentp. 1 - Nozzle wear
Nozzle & Gear Material Hardened steel
Flashforge, Technical Data Sheet PPA-CF Filamentp. 2 - Supports and removal
Otherwise, the support structure can be bonded to the model, which will make the support hard to remove.
Flashforge, Technical Data Sheet PPA-CF Filamentp. 3 - Supports and removal
If PPA-CF is used as the support material for itself, please remove the support structure as soon as the model cools down.
Flashforge, Technical Data Sheet PPA-CF Filamentp. 3 - Printing advice
After the printing process, it is recommended to dry the model in the oven at 80-100°C for 1-3 hours to increase the strength of the model.
Flashforge, Technical Data Sheet PPA-CF Filamentp. 3
Chemicals and environment (1)
- Post-processing: described in words
After the printing process, it is recommended to dry the model in the oven at 80-100°C for 1-3 hours to increase the strength of the model.
Flashforge, Technical Data Sheet PPA-CF Filamentp. 3: Post-processing note
SIDDAMENT PPA-CFStrength XY, MPa108Strength Z, MPa—Modulus XY, GPa7.1Charpy notched, kJ/m²9IzodHDT 0.45, °C220HDT 1.8, °C—Price, CAD/kg—Nozzle, °C255–275Bed, °C80–100Chamber, °C25–80Drying, °C, h120≥ 8 h
SIDDAMENT PPA-CFSIDDAMENT
Data sheet shared with Flashforge PPA-CF: their values are one table, recorded once.
Published values
No value is on file for this product.
Print settings
- Nozzle
- 255–275 °Cown data sheet
- Bed
- 80–100 °Cown data sheet
- Heated chamber
- 25–80 °Cown data sheet
- Drying
- 120 °C for ≥ 8 hown data sheet
- Hardened nozzle
- neededBambu Lab Filament Guide
Its print profile, in the documents' words
- Nozzle 255~275℃( Recommend 270℃); Bed 80~100℃(Recommend 90℃); Chamber Room temperature ~80℃; Drying 120°C for at least 8 hoursSIDDAMENT, Technical Data Sheet PPA-CF Filamentp. 2: Nozzle Temperature, Bed Temperature, Printing Environmental Temperature
Price
Not in the price sample.
Its 2 documents
What the maker says (3)
- Benefits
It has high temperature resistance, low moisture absorption and low shrinkage, and can be used on 3D printers in non-heated chambers. 3D models printed with this material have good tensile and impact strength, a heat deformation temperature of up to 220°C, and good high-temperature creep resistance, so the size and electrical properties are less affected by humidity and temperature.
SIDDAMENT, Technical Data Sheet PPA-CF Filamentp. 1 - Benefits
High stiffness/high strength/high temperature resistance/low creep
SIDDAMENT, Technical Data Sheet PPA-CF Filamentp. 1 - Nozzle wear
Nozzle and gear material High strength steel
SIDDAMENT, Technical Data Sheet PPA-CF Filamentp. 2
Chemicals and environment (1)
- Post-processing: described in words
After the model is printed, it is recommended to dry it in an oven at a temperature of 80 ~100°C for 1 ~ 3 hours to improve the strength of the model
SIDDAMENT, Technical Data Sheet PPA-CF Filamentp. 3: Post-processing note
Siraya Tech Fibreheart PPA-CFStrength XY, MPa95Strength Z, MPa—Modulus XY, GPa7.8Charpy notched, kJ/m²—HDT 0.45, °C85HDT 1.8, °C83Price, CAD/kg—Nozzle, °C280–320Bed, °C70–90Chamber, °CenclosedDrying, °C, h1004–6 h
Siraya Tech Fibreheart PPA-CFSiraya Tech
Published values
| Property | As published | Conditions | On the Overview |
|---|---|---|---|
| Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CF27 valuesThe same values also in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments.Unless a row says otherwise: specimen not stated | |||
| Tensile modulus orientation not stated | 7800 MPap. 2: Mechanical Properties, Young’s Modulus, Unannealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | ASTM D638as printedUnannealed | not in the median: set apart (never used to pass), test bar not described as printed |
| Tensile modulus orientation not stated | 8700 MPap. 2: Mechanical Properties, Young’s Modulus, Annealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | ASTM D638annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| Tensile break strength orientation not stated | 95 MPap. 2: Mechanical Properties, Tensile Stress at Break, Unannealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | ISO 527as printedUnannealed | not in the median: set apart (never used to pass), test bar not described as printed |
| Tensile break strength orientation not stated | 98 MPap. 2: Mechanical Properties, Tensile Stress at Break, Annealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | ISO 527annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| Elongation at break orientation not stated | 2 %p. 2: Mechanical Properties, Elongation at Break, Unannealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | ASTM D638as printedUnannealed | not in the median: set apart (never used to pass), test bar not described as printed |
| Elongation at break orientation not stated | 1.6 %p. 2: Mechanical Properties, Elongation at Break, Annealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | ASTM D638annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| Flexural modulus orientation not stated | 6800 MPap. 2: Mechanical Properties, Bending Modulus, Unannealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | ISO 178as printedUnannealed | not in the median: set apart (never used to pass), test bar not described as printed |
| Flexural modulus orientation not stated | 7350 MPap. 2: Mechanical Properties, Bending Modulus, Annealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | ISO 178annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| Flexural strength orientation not stated | 145 MPap. 2: Mechanical Properties, Bending Strength, Unannealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | ISO 178as printedUnannealed | not in the median: set apart (never used to pass), test bar not described as printed |
| Flexural strength orientation not stated | 145 MPap. 2: Mechanical Properties, Bending Strength, Annealed | ISO 178annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| Charpy impact strength orientation not stated | 11 kJ/m²p. 2: Mechanical Properties, Charpy impact strength, Unannealed | ISO 179as printedUnannealed | not in the median: notch not stated |
| Charpy impact strength orientation not stated | 6.3 kJ/m²p. 2: Mechanical Properties, Charpy impact strength, Annealed | ISO 179annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| HDT at 0.45 MPa | 84.5 °Cp. 3: Other Properties, HDT, Method B 0.45 MPa, Unannealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | no standard namedAs the sheet prints it: Method B 0.45 MPaas printedUnannealed | not in the median: set apart (never used to pass), test bar not described as printed |
| HDT at 0.45 MPa | 192 °Cp. 3: Other Properties, HDT, Method B 0.45 MPa, Annealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | no standard namedAs the sheet prints it: Method B 0.45 MPaannealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| HDT at 1.8 MPa | 82.5 °Cp. 3: Other Properties, HDT, Method A @ 1.80 MPa, Unannealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | no standard namedAs the sheet prints it: Method A @ 1.80 MPaas printedUnannealed | not in the median: set apart (never used to pass), test bar not described as printed |
| HDT at 1.8 MPa | 119 °Cp. 3: Other Properties, HDT, Method A @ 1.80 MPa, Annealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | no standard namedAs the sheet prints it: Method A @ 1.80 MPaannealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| Glass transition temperature | 80 °Cp. 3: Other Properties, Glass Transition Temperature, Unannealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | ASTM D3418as printedUnannealed | in the median |
| Glass transition temperature | 80 °Cp. 3: Other Properties, Glass Transition Temperature, Annealed | ASTM D3418annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| Vicat softening temperature | 230 °Cp. 3: Other Properties, Vicat softening temperature, Unannealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | ISO 306as printedUnannealed | |
| Vicat softening temperature | 230 °Cp. 3: Other Properties, Vicat softening temperature, Annealed | ISO 306annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | |
| Melting temperature | 232 °Cp. 3: Other Properties, Melting Point, Unannealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | ASTM D3418as printedUnannealed | |
| Melting temperature | 232 °Cp. 3: Other Properties, Melting Point, Annealed | ASTM D3418annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | |
| Density | 1.2 g/cm³p. 3: Other Properties, Filament Density, Unannealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | ISO 1183as printedUnannealed | |
| Density | 1.2 g/cm³p. 3: Other Properties, Filament Density, Annealed | ISO 1183annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | |
| Water absorption | 1.37 %p. 3: Other Properties, Water Absorption Rate, Unannealedalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsalso in Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environments | ISO 62as printedUnannealed | |
| Water absorption | 1.37 %p. 3: Other Properties, Water Absorption Rate, Annealed | ISO 62annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | |
| Fibre content | 15% carbon fibersp. 1: Fibre content | no standard stated | |
| Siraya Tech, Material Safety Data Sheet: Siraya Tech PAHT-CF1 value | |||
| Fibre content | 15-20 %p. 2: Fibre content | no standard stated | |
Print settings
- Nozzle
- 280–320 °Cown data sheet
- Bed
- 70–90 °Cown data sheet
- Heated chamber
- enclosure needed, no temperatureBambu Lab Filament Guide
- Drying
- optional: 100 °C for 4–6 hown data sheet
- Hardened nozzle
- neededown data sheet
- Annealing
- temperature not statedown data sheet
Its 2 print profiles, in the documents' words
- Nozzle 280-320°C; Bed 70-90°C; Drying Only dry if filament shows signs of moisture; Dry at 100°C for 4-6 hoursSiraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsp. 1: Recommended printing settings; p. 1: Drying; p. 1: Recommended build plate temperature; p. 1: Nozzle; p. 1: Print Bed Surface Coating
- Nozzle 300-320°C; Bed 70-90°C; Drying Only dry if filament shows signs of moisture; Dry at 100°C for 4-6 hoursSiraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 3: Drying; p. 4: Build Plate Temperature, Nozzle Temperature; p. 4: Recommended Nozzle Diameter; p. 3: Nozzle note; p. 3: Print Bed Surface Coating
Price
Not in the price sample.
Its 4 documents
What the maker says (29)
- Good for
Automotive, drones, robots, and other mechanical components.
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 1 - Good for
Industrial and Electronics: High-strength tools, industrial equipment components, robotic arms, electronic casings, and insulators.
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 1 - Good for
Medical and sports equipment: Durable medical instruments, sports equipment, and outdoor gear.
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 1 - Benefits
High Strength and Durability: Carbon fiber reinforcement for tough, stress-resistant parts.
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 1 - Warping and shrinkage
Advanced Reinforcement: 15% carbon fibers for superior mechanical properties and reduced warping.
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 1 - Precision and tolerance
Stable accuracy: Chopped carbon fibers are evenly distributed to form a strong network solidified structure, ensuring high accuracy for complex engineering projects.
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 1 - Moisture sensitivity
Low Moisture Absorption: Better printability and stability than PA6 & other nylons.
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 1 - Moisture sensitivity
Only dry if filament shows signs of moisture.
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 3 - Nozzle wear
Nozzle Use a hardened steel nozzle or higher grade
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 3 - Printing advice
Heating Block At least 12mm thick for optimal temperature stability
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 3 - Moisture sensitivity
Store the filament in a dry box with relative humidity below 15%.
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 4 - Moisture sensitivity
Always reseal the filament packaging promptly after use to prevent moisture absorption.
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 4 - Moisture sensitivity
If the filament absorbs moisture, dry it in an oven at 100°C for 4-6 hours to avoid issues like oozing, bubbles, and rough surface finish.
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 4 - Nozzle wear
Recommended Nozzle Diameter 0.4-1.0mm (hardened steel nozzle preferred)
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 4 - Warping and shrinkage
Warping can occur due to the material cooling too quickly.
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 5 - Warping and shrinkage
To prevent this, maintain a consistent temperature environment around the printer, possibly using an enclosure to keep out drafts.
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CFp. 5 - Good for
Automotive, drones, robots, and other mechanical components .
Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsp. 1 - Good for
Industrial and Electronics : High-strength tools, industrial equipment components, robotic arms, electronic casings, and insulators.
Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsp. 1 - Good for
Medical and sports equipment : Durable medical instruments, sports equipment, and outdoor gear.
Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsp. 1 - Warping and shrinkage
Use a PEI sheet or apply a PVP glue coating on the print bed surface for better adhesion and to reduce warping
Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsp. 1 - Moisture sensitivity
Store the filament in a dry box with relative humidity below 15%.
Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsp. 1 - Moisture sensitivity
Always reseal the filament packaging promptly after use to prevent moisture absorption.
Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsp. 1 - Moisture sensitivity
If the filament absorbs moisture, dry it in an oven at 100°C for 4-6 hours to avoid issues like oozing, bubbles, and rough surface finish.
Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsp. 1 - Moisture sensitivity
Only dry if filament shows signs of moisture.
Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsp. 1 - Moisture sensitivity
Moisture Absorption : Symptoms: Oozing, bubbles, rough surface finish.
Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsp. 1 - Moisture sensitivity
Ensure filament is stored in a dry box with humidity below 15%.
Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsp. 1 - Nozzle wear
Recommended Nozzle Diameter 0.4-1.0mm (hardened steel nozzle preferred)
Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsp. 1 - Nozzle wear
Nozzle Use a hardened steel nozzle or higher grade
Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsp. 1 - Printing advice
Heating Block At least 12mm thick for optimal temperature stability
Siraya Tech, High-Performance PPA Based PAHT-CF | 3D FDM Filament for Extreme Environmentsp. 1
Chemicals and environment (3)
- Safety: described in words
Handle in accordance with good industrial hygiene and safety practice. Do not eat, drink or smoke at the workplace. Avoid dust formation by cutting or grinding. During printing, ensure good ventilation and local exhaust.
Processing ventilationSiraya Tech, Material Safety Data Sheet: Siraya Tech PAHT-CFp. 3: section 7.1, Precautions for safe handling - Moisture sensitivity: described in words
To ensure technical integrity of the product store in the original container/box and keep at temperatures below 50ºC and in a dry place. Protect from moisture, product may be hygroscopic.
Moisture handlingSiraya Tech, Material Safety Data Sheet: Siraya Tech PAHT-CFp. 3: section 7.2, Conditions for safe storage - Disposal and circularity: described in words
Dispose of in accordance with local regulations.
Siraya Tech, Material Safety Data Sheet: Siraya Tech PAHT-CFp. 4: section 13.1, Waste treatment methods
Siraya Tech Fibreheart PPA-CF CoreStrength XY, MPa112Strength Z, MPa—Modulus XY, GPa9.3Charpy notched, kJ/m²—HDT 0.45, °C97HDT 1.8, °C84Price, CAD/kg—Nozzle, °C280–320Bed, °C80Chamber, °CenclosedDrying, °C, h80–1004–6 h
Siraya Tech Fibreheart PPA-CF CoreSiraya Tech
Published values
| Property | As published | Conditions | On the Overview |
|---|---|---|---|
| Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CF Core27 valuesUnless a row says otherwise: specimen not stated | |||
| Tensile modulus orientation not stated | 9300 MPap. 2: Mechanical Properties, Young’s Modulus, Unannealed | ASTM D638as printedUnannealed | not in the median: set apart (never used to pass), test bar not described as printed |
| Tensile modulus orientation not stated | 10220 MPap. 2: Mechanical Properties, Young’s Modulus, Annealed | ASTM D638annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| Tensile break strength orientation not stated | 112 MPap. 2: Mechanical Properties, Tensile Stress at Break, Unannealed | ASTM D638as printedUnannealed | not in the median: set apart (never used to pass), test bar not described as printed |
| Tensile break strength orientation not stated | 121 MPap. 2: Mechanical Properties, Tensile Stress at Break, Annealed | ASTM D638annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| Elongation at break orientation not stated | 2.25 %p. 2: Mechanical Properties, Elongation at Break, Unannealed | ASTM D638as printedUnannealed | not in the median: set apart (never used to pass), test bar not described as printed |
| Elongation at break orientation not stated | 1.6 %p. 2: Mechanical Properties, Elongation at Break, Annealed | ASTM D638annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| Flexural modulus orientation not stated | 8700 MPap. 2: Mechanical Properties, Bending Modulus, Unannealed | ISO 178as printedUnannealed | not in the median: set apart (never used to pass), test bar not described as printed |
| Flexural modulus orientation not stated | 9510 MPap. 2: Mechanical Properties, Bending Modulus, Annealed | ISO 178annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| Flexural strength orientation not stated | 178 MPap. 2: Mechanical Properties, Bending Strength, Unannealed | ISO 178as printedUnannealed | not in the median: set apart (never used to pass), test bar not described as printed |
| Flexural strength orientation not stated | 185 MPap. 2: Mechanical Properties, Bending Strength, Annealed | ISO 178annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| Charpy impact strength orientation not stated | 13.1 kJ/m²p. 2: Mechanical Properties, Charpy impact strength, Unannealed | ISO 179as printedUnannealed | not in the median: notch not stated |
| Charpy impact strength orientation not stated | 7.3 kJ/m²p. 2: Mechanical Properties, Charpy impact strength, Annealed | ISO 179annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| HDT at 0.45 MPa | 97 °Cp. 3: Other Properties, HDT, Method B at 0.45 MPa, Unannealed | no standard namedAs the sheet prints it: Method B at 0.45 MPaas printedUnannealed | not in the median: set apart (never used to pass), test bar not described as printed |
| HDT at 0.45 MPa | 199 °Cp. 3: Other Properties, HDT, Method B at 0.45 MPa, Annealed | no standard namedAs the sheet prints it: Method B at 0.45 MPaannealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| HDT at 1.8 MPa | 84 °Cp. 3: Other Properties, HDT, Method A at 1.80 MPa, Unannealed | no standard namedAs the sheet prints it: Method A at 1.80 MPaas printedUnannealed | not in the median: set apart (never used to pass), test bar not described as printed |
| HDT at 1.8 MPa | 126 °Cp. 3: Other Properties, HDT, Method A at 1.80 MPa, Annealed | no standard namedAs the sheet prints it: Method A at 1.80 MPaannealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| Glass transition temperature | 80 °Cp. 3: Other Properties, Glass Transition Temperature, Unannealed | ASTM D3418as printedUnannealed | in the median |
| Glass transition temperature | 80 °Cp. 3: Other Properties, Glass Transition Temperature, Annealed | ASTM D3418annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | not in the median: annealed; the as-printed value is in it |
| Vicat softening temperature | 238 °Cp. 3: Other Properties, Vicat softening temperature, Unannealed | ISO 306as printedUnannealed | |
| Vicat softening temperature | 238 °Cp. 3: Other Properties, Vicat softening temperature, Annealed | ISO 306annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | |
| Melting temperature | 239 °Cp. 3: Other Properties, Melting Point, Unannealed | ASTM D3418as printedUnannealed | |
| Melting temperature | 239 °Cp. 3: Other Properties, Melting Point, Annealed | ASTM D3418annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | |
| Density | 1.23 g/cm³p. 3: Other Properties, Filament Density, Unannealed | ISO 1183as printedUnannealed | |
| Density | 1.23 g/cm³p. 3: Other Properties, Filament Density, Annealed | ISO 1183annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | |
| Water absorption | 1.09 %p. 3: Other Properties, Water Absorption Rate, Unannealed | ISO 62as printedUnannealed | |
| Water absorption | 1.09 %p. 3: Other Properties, Water Absorption Rate, Annealed | ISO 62annealed at a temperature its sheet does not state for a time its sheet does not stateAnnealed (schedule not stated) | |
| Fibre content | 25%p. 1: Fibre content | no standard stated | |
| Siraya Tech, Material Safety Data Sheet: Siraya Tech PPA-CF Core1 value | |||
| Fibre content | 20-25 %p. 2: Fibre content | no standard stated | |
Print settings
- Nozzle
- 280–320 °Cown data sheet
- Bed
- 80 °Cown data sheet
- Heated chamber
- enclosure needed, no temperatureBambu Lab Filament Guide
- Drying
- optional: 80–100 °C for 4–6 hown data sheet
- Hardened nozzle
- neededown data sheet
- Annealing
- temperature not statedown data sheet
Its print profile, in the documents' words
- Nozzle 280-320°C; Bed 80°C; Drying Dry only if damp; Dry in oven at 80-100°C for 4-6 hoursSiraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CF Corep. 4: Bed Temperature, Drying note, Nozzle Temperature; p. 1: Nozzle Diameter; p. 1: Drying temperature and time
Price
Not in the price sample.
Its 3 documents
What the maker says (10)
- Good for
High-performance mechanical components Thin-wall parts requiring exceptional strength Heat-resistant applications Precision engineering components Industrial tooling and fixtures Parts requiring superior layer adhesion
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CF Corep. 1 - Benefits
Superior Mechanical Properties: Higher fiber content (25%) enables exceptional strength and stiffness
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CF Corep. 1 - Benefits
Easy on the Hand: Less fiber on the outer shell means less chance for short fiber irritating skin
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CF Corep. 1 - Warping and shrinkage
Excellent Dimensional Stability: Core-shell structure minimizes warping and improves part accuracy
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CF Corep. 1 - Adhesion between layers
Enhanced Layer Bonding: Pure resin shell-to-shell contact provides superior Z-axis strength
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CF Corep. 1 - Nozzle wear
Extended Equipment Life: Reduced wear on nozzles, extruders, and other printer components
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CF Corep. 1 - Moisture sensitivity
Ensure the material is dried, only dry if filament shows signs of moisture.
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CF Corep. 4 - Nozzle wear
Nozzle Hardened steel or higher grade
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CF Corep. 4 - Supports and removal
Compatible with quick-release support materials
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CF Corep. 4 - Moisture sensitivity
Moisture contamination Oozing, bubbles, or rough surface finish
Siraya Tech, Technical Data Sheet: Siraya Tech Fibreheart PPA-CF Corep. 5
Chemicals and environment (3)
- Safety: described in words
Handle in accordance with good industrial hygiene and safety practice. Do not eat, drink or smoke at the workplace. Avoid dust formation by cutting or grinding. During printing, ensure good ventilation and local exhaust.
Processing ventilationSiraya Tech, Material Safety Data Sheet: Siraya Tech PPA-CF Corep. 3: section 7.1, Precautions for safe handling - Moisture sensitivity: described in words
To ensure technical integrity of the product store in the original container/box and keep at temperatures below 50ºC and in a dry place. Protect from moisture, product may be hygroscopic.
Moisture handlingSiraya Tech, Material Safety Data Sheet: Siraya Tech PPA-CF Corep. 3: section 7.2, Conditions for safe storage - Disposal and circularity: described in words
Dispose of in accordance with local regulations.
Siraya Tech, Material Safety Data Sheet: Siraya Tech PPA-CF Corep. 4: section 13.1, Waste treatment methods
3DXTECH CarbonX Carbon Fiber High Temp Nylon (HTN)Strength XY, MPa87Strength Z, MPa—Modulus XY, GPa8.2Charpy notched, kJ/m²—HDT 0.45, °C240HDT 1.8, °C—Price, CAD/kg—Nozzle, °C285–315Bed, °C110–120Chamber, °C—Drying, °C, h1204 h
3DXTECH CarbonX Carbon Fiber High Temp Nylon (HTN)3DXTECH
Published values
| Property | As published | Conditions | On the Overview |
|---|---|---|---|
3DXTECH, Tech Data Sheet CarbonX™ Carbon Fiber High Temp Nylon (HTN) 3D Filament7 valuesThe same values also in 3DXTECH, Tech Data Sheet CarbonX™ Carbon Fiber High Temp Nylon (HTN) 3D Filament.Unless a row says otherwise: printed specimenprint settingsPrinted Specimen Conditions Printer: Open Source FDM/FFF Nozzle: 0.4mm Layer Height: 0.25mm Infill: 100%, +/- 45° Extrusion Temp: 310°C Bed Temp: 130°C Specimen Orientation: XY Flat | |||
| Tensile modulus XY | 8200 MPap. 1: Tensile Modulus ISO 527 MPaalso in 3DXTECH, Tech Data Sheet CarbonX™ Carbon Fiber High Temp Nylon (HTN) 3D Filament | ISO 527 | in the median |
| Tensile break strength XY | 87 MPap. 1: Tensile Strength, Break ISO 527 MPaalso in 3DXTECH, Tech Data Sheet CarbonX™ Carbon Fiber High Temp Nylon (HTN) 3D Filament | ISO 527 | in the median |
| Elongation at break XY | 1.9 %p. 1: Tensile Elongation, Break ISO 527 %also in 3DXTECH, Tech Data Sheet CarbonX™ Carbon Fiber High Temp Nylon (HTN) 3D Filament | ISO 527 | in the median |
| Flexural modulus XY | 7895 MPap. 1: Flexural Modulus ISO 178 MPaalso in 3DXTECH, Tech Data Sheet CarbonX™ Carbon Fiber High Temp Nylon (HTN) 3D Filament | ISO 178 | in the median |
| Flexural strength XY | 95 MPap. 1: Flexural Strength ISO 178 MPaalso in 3DXTECH, Tech Data Sheet CarbonX™ Carbon Fiber High Temp Nylon (HTN) 3D Filament | ISO 178 | in the median |
| HDT at 0.45 MPa | 240 °Cp. 1: Deflection Temperature at 0.45 ISO 75 °Calso in 3DXTECH, Tech Data Sheet CarbonX™ Carbon Fiber High Temp Nylon (HTN) 3D Filament | ISO 75As the sheet prints it: ISO 75, 0.45 MPa (66psi) | in the median |
| Glass transition temperature | 265 °Cphysically implausiblep. 1: Glass Transition Temperature DSC °C | DSCAs the sheet prints it: DSC Tg | not in the median: physically implausible as published |
| 3DXTECH, CARBONX™ HTN+CF4 valuesUnless a row says otherwise: specimen not stated | |||
| Tensile strength (yield or break not stated) orientation not stated | 106 MPap. 1: tensile strength (Benefits of CARBONX™ HTN+CF) | no standard stated | not in the median: replaced by a newer edition of the sheet or by the data sheet, so not used in deciding |
| Tensile strength (yield or break not stated) orientation not stated | 87 MPap. 1: tensile strength (CarbonX HTN+CF) | no standard stated | not in the median: replaced by a newer edition of the sheet or by the data sheet, so not used in deciding |
| HDT | 200°Cp. 1: heat deflection temperature (Benefits of CARBONX™ HTN+CF) | no standard stated | not in the median: replaced by a newer edition of the sheet or by the data sheet, so not used in deciding |
| HDT | 240°Cp. 1: heat deflection temperature (CarbonX HTN+CF) | no standard stated | not in the median: replaced by a newer edition of the sheet or by the data sheet, so not used in deciding |
3DXTECH, Tech Data Sheet CarbonX™ Carbon Fiber High Temp Nylon (HTN) 3D Filament3 valuesThe same values also in 3DXTECH, Tech Data Sheet CarbonX™ Carbon Fiber High Temp Nylon (HTN) 3D Filament.Unless a row says otherwise: printed specimenprint settingsPrinted Specimen Conditions Printer: Open Source FDM/FFF Nozzle: 0.4mm Layer Height: 0.25mm Infill: 100%, +/- 45° Extrusion Temp: 295°C Bed Temp: 130°C Specimen Orientation: XY Flat | |||
| Glass transition temperature | 125 °Cp. 1: Glass Transition Temperature DSC °C | DSCAs the sheet prints it: DSC Tg | in the median |
| Melting temperature | 265 °Cp. 1: Melt Temperature (Tm) DSC °C | DSCAs the sheet prints it: Tm DSC °C | |
| Density | 1.24 g/ccp. 1: Density ISO 1183 g/ccalso in 3DXTECH, Tech Data Sheet CarbonX™ Carbon Fiber High Temp Nylon (HTN) 3D Filament | ISO 1183As the sheet prints it: 1183 g/cc ISO 1183 | |
Print settings
- Nozzle
- 285–315 °Cown data sheet
- Bed
- 110–120 °Cown data sheet
- Heated chamber
- not stated
- Drying
- 120 °C for 4 hown data sheet
- Hardened nozzle
- neededown data sheet
Its 3 print profiles, in the documents' words
- No temperature stated3DXTECH, Tech Data Sheet CarbonX™ Carbon Fiber High Temp Nylon (HTN) 3D Filamentp. 1: Printed Specimen Conditions, which are not printing guidance
- No temperature stated3DXTECH, Tech Data Sheet CarbonX™ Carbon Fiber High Temp Nylon (HTN) 3D Filamentp. 1: Printed Specimen Conditions, which are not printing guidance
- Nozzle 285°-315 C; Bed 110-120° C; Chamber Recommended; Drying 120C for 4 hours3DXTECH, CARBONX™ HTN+CFp. 1: Extruder Temp; p. 1: Bed Temp; p. 1: Heated Chamber; p. 1: Nozzle Specs; p. 1: Nozzle Specs; p. 1: Drying Specs
Price
Not in the price sample.
Its 4 documents
What the maker says (11)
- Good for
Excels in high-performance parts, tools, and fixtures
3DXTECH, CARBONX™ HTN+CFp. 1 - Benefits
Reinforced with high-modulus carbon fiber
3DXTECH, CARBONX™ HTN+CFp. 1 - Benefits
106 MPa tensile strength and a heat deflection temperature of 200°C
3DXTECH, CARBONX™ HTN+CFp. 1 - Benefits
Low moisture absorption and superior chemical resistance
3DXTECH, CARBONX™ HTN+CFp. 1 - Good for
CarbonX™ Carbon Fiber High Temp Nylon (HTN) is engineered for high-strength, heat-resistant applications.
3DXTECH, CARBONX™ HTN+CFp. 1 - Benefits
Reinforced with high-modulus carbon fiber, it offers 87 MPa tensile strength and a heat deflection temperature of 240°C.
3DXTECH, CARBONX™ HTN+CFp. 1 - Good for
With low moisture absorption and superior chemical resistance, it excels in high-performance parts, tools, and fixtures.
3DXTECH, CARBONX™ HTN+CFp. 1 - Benefits
CarbonX™ HTN+CF provides excellent stiffness and thermal stability, making it ideal for demanding 3D printing projects.
3DXTECH, CARBONX™ HTN+CFp. 1 - Printing advice
Heated Chamber Recommended
3DXTECH, CARBONX™ HTN+CFp. 1 - Nozzle wear
Nozzle Specs Hardened Steel with .4mm diameter minimum
3DXTECH, CARBONX™ HTN+CFp. 1 - Moisture sensitivity
Drying Specs 120C for 4 hours
3DXTECH, CARBONX™ HTN+CFp. 1
Raise3D Hyper Core PPA CF25Strength XY, MPa—Strength Z, MPa—Modulus XY, GPa—Charpy notched, kJ/m²—HDT 0.45, °C197HDT 1.8, °C124Price, CAD/kg—Nozzle, °C280–310Bed, °C100–120Chamber, °CenclosedDrying, °C, h80–1006–12 h
Raise3D Hyper Core PPA CF25Raise3D
Published values
| Property | As published | Conditions | On the Overview |
|---|---|---|---|
Raise3D, Raise3D Hyper Core PPA CF25 Technical Data Sheet21 valuesUnless a row says otherwise: printed specimenafter moisture conditioningConditioned | |||
| Tensile modulus XY | 9989 ±228 MPap. 1: Young’s modulus (MPa) | ISO 527annealed at 100 °C for 8 hannealed at 100 ºC for 8hprint settingsNozzle temp. = 320 ºC; Bed temp.= 80 ºC; Print speed= 45 mm/s; Infill= 100%; Infill angle= ±45 ° | not in the median: measured after moisture conditioning |
| Tensile modulus XY | 8896 ±232 MPap. 2: Young’s modulus (MPa) (XY) | ISO 527as printedbefore annealedprint settingsNozzle temp.= 320 ºC; Bed temp.= 80 ºC; Print speed= 45 mm/s; Infill= 100 %; Infill angle= ±45 ° | not in the median: measured after moisture conditioning |
| Tensile modulus Z (ZX) | 4214 ±97 MPap. 2: Young’s modulus (MPa) (ZX) | ISO 527as printedbefore annealedprint settingsNozzle temp.= 320 ºC; Bed temp.= 80 ºC; Print speed= 45 mm/s; Infill= 100 %; Infill angle= ±45 ° | not in the median: measured after moisture conditioning |
| Tensile strength (yield or break not stated) XY | 118 ± 4 MPap. 1: Tensile strength (MPa) | ISO 527annealed at 100 °C for 8 hannealed at 100 ºC for 8hprint settingsNozzle temp. = 320 ºC; Bed temp.= 80 ºC; Print speed= 45 mm/s; Infill= 100%; Infill angle= ±45 ° | not in the median: measured after moisture conditioning |
| Tensile strength (yield or break not stated) XY | 110 ± 2 MPap. 2: Tensile strength (MPa) (XY) | ISO 527as printedbefore annealedprint settingsNozzle temp.= 320 ºC; Bed temp.= 80 ºC; Print speed= 45 mm/s; Infill= 100 %; Infill angle= ±45 ° | not in the median: measured after moisture conditioning |
| Tensile strength (yield or break not stated) Z (ZX) | 58 ± 2 MPap. 2: Tensile strength (MPa) (ZX) | ISO 527as printedbefore annealedprint settingsNozzle temp.= 320 ºC; Bed temp.= 80 ºC; Print speed= 45 mm/s; Infill= 100 %; Infill angle= ±45 ° | not in the median: measured after moisture conditioning |
| Elongation at break XY | 1.62 ± 0.12 %p. 1: Elongation at break (%) | ISO 527annealed at 100 °C for 8 hannealed at 100 ºC for 8hprint settingsNozzle temp. = 320 ºC; Bed temp.= 80 ºC; Print speed= 45 mm/s; Infill= 100%; Infill angle= ±45 ° | not in the median: measured after moisture conditioning |
| Elongation at break XY | 2.18 ± 0.14 %p. 2: Elongation at break (%) (XY) | ISO 527as printedbefore annealedprint settingsNozzle temp.= 320 ºC; Bed temp.= 80 ºC; Print speed= 45 mm/s; Infill= 100 %; Infill angle= ±45 ° | not in the median: measured after moisture conditioning |
| Elongation at break Z (ZX) | 1.64 ± 0.10 %p. 2: Elongation at break (%) (ZX) | ISO 527as printedbefore annealedprint settingsNozzle temp.= 320 ºC; Bed temp.= 80 ºC; Print speed= 45 mm/s; Infill= 100 %; Infill angle= ±45 ° | not in the median: measured after moisture conditioning |
| Flexural modulus XY | 9214 ±250 MPap. 1: Bending modulus (MPa) | ISO 178annealed at 100 °C for 8 hannealed at 100 ºC for 8hprint settingsNozzle temp. = 320 ºC; Bed temp.= 80 ºC; Print speed= 45 mm/s; Infill= 100%; Infill angle= ±45 ° | not in the median: measured after moisture conditioning |
| Flexural modulus XY | 8487 ±246 MPap. 2: Bending modulus (MPa) | ISO 178as printedbefore annealed | not in the median: measured after moisture conditioning |
| Flexural strength XY | 184 ± 6 MPap. 1: Bending strength (MPa) | ISO 178annealed at 100 °C for 8 hannealed at 100 ºC for 8hprint settingsNozzle temp. = 320 ºC; Bed temp.= 80 ºC; Print speed= 45 mm/s; Infill= 100%; Infill angle= ±45 ° | not in the median: measured after moisture conditioning |
| Flexural strength XY | 176 ± 4 MPap. 2: Bending strength (MPa) | ISO 178as printedbefore annealed | not in the median: measured after moisture conditioning |
| Charpy impact strength XY | 7.29 ± 0.76 kJ/m²p. 1: Charpy impact strength (kJ/m²) | ISO 179annealed at 100 °C for 8 hannealed at 100 ºC for 8hprint settingsNozzle temp. = 320 ºC; Bed temp.= 80 ºC; Print speed= 45 mm/s; Infill= 100%; Infill angle= ±45 ° | not in the median: measured after moisture conditioning |
| Charpy impact strength XY | 12.04 ±0.94 kJ/m²p. 2: Charpy impact strength (kJ/m²) | ISO 179as printedbefore annealedprint settingsNozzle temp.= 320 ºC; Bed temp.= 80 ºC; Print speed= 45 mm/s; Infill= 100 %; Infill angle= ±45 ° | not in the median: measured after moisture conditioning |
| HDT at 0.45 MPa | 197 °Cp. 2: Heat distortion temperature³ (°C) (197) | ISO 75As the sheet prints it: ISO 75; 0.45 MPaannealed at 100 °C for 8 hannealed at 100 ºC for 8h | in the median |
| HDT at 1.8 MPa | 124 °Cp. 2: Heat distortion temperature³ (°C) (124) | ISO 75As the sheet prints it: ISO 75; 1.8 MPaannealed at 100 °C for 8 hannealed at 100 ºC for 8h | in the median |
| Density | 1.23 g/cm³p. 1: Density (g/cm³) | specimen not stated, ISO 1183, GB/T 1033moisture state not stated | |
| Water absorption | 1.09 %p. 1: Water absorption (%) | specimen not stated, ISO 62As the sheet prints it: ISO 62: Method 1 | |
| Melt mass-flow rate | 4.2 g/10 minp. 2: Melt flow index (g/10 min) | specimen not stated, no standard namedAs the sheet prints it: 2.16 kg | |
| Fibre content | 25 wt.%p. 1: Fibre content | specimen not stated, no standard statedmoisture state not stated | |
Print settings
- Nozzle
- 280–310 °CBambu Lab Filament Guide
- Bed
- 100–120 °CBambu Lab Filament Guide
- Heated chamber
- enclosure needed, no temperatureBambu Lab Filament Guide
- Drying
- 80–100 °C for 6–12 hown data sheet
- Hardened nozzle
- neededown data sheet
- Annealing
- 100 °C for 8 hown data sheet
Its print profile, in the documents' words
- Drying Please dry the filament at 80 - 100 ºC for 6-12 hoursRaise3D, Raise3D Hyper Core PPA CF25 Technical Data Sheetp. 2: Nozzle note; p. 2: Notes. Its nozzle and bed temperatures are the specimens' print conditions, which are not printing guidance.
Price
Not in the price sample.
Its 2 documents
What the maker says (6)
- Benefits
During high speed printing, Hyper Core PPA CF25 shows superior performance higher strength and rigidity, higher heat resistance and surface quality.
Raise3D, Raise3D Hyper Core PPA CF25 Technical Data Sheetp. 1 - Odour and emissions
Odor / Almost odorless
Raise3D, Raise3D Hyper Core PPA CF25 Technical Data Sheetp. 1 - Moisture sensitivity
After drying, we recommend storing the filament into Raise3D Filament Dry Box during the printing.
Raise3D, Raise3D Hyper Core PPA CF25 Technical Data Sheetp. 2 - Nozzle wear
Using abrasion resistance nozzle, as hardened steel and above grade nozzle is highly recommended.
Raise3D, Raise3D Hyper Core PPA CF25 Technical Data Sheetp. 2 - Supports and removal
Otherwise, the support structure could be permanently bonded to the model after moisture absorption.
Raise3D, Raise3D Hyper Core PPA CF25 Technical Data Sheetp. 2 - Supports and removal
If this filament is used as the support material for itself, please remove the support structure after annealing.
Raise3D, Raise3D Hyper Core PPA CF25 Technical Data Sheetp. 2
Raise3D Industrial PPA CFStrength XY, MPa—Strength Z, MPa—Modulus XY, GPa—Charpy notched, kJ/m²—HDT 0.45, °C188HDT 1.8, °C113Price, CAD/kg—Nozzle, °C280–310Bed, °C100–120Chamber, °CenclosedDrying, °C, h80–1006–12 h
Raise3D Industrial PPA CFRaise3D
Published values
| Property | As published | Conditions | On the Overview |
|---|---|---|---|
| Raise3D, Raise3D Industrial PPA CF Technical Data Sheet14 values | |||
| Tensile modulus XY | 7800 ± 520 MPap. 2: Mechanical Properties (Conditioned), Young’s modulus (X-Y) | ISO 527after moisture conditioningConditioned: immerged at ambient temperature for 3 days (medium not stated)annealed at 100 °C for 8 hAll specimens were annealed at 100 °C for 8 h, and immerged in ambient temperature for 3 days prior to testingprint settingsTensile, flexural and impact bars drawn on p. 3 (tensile 150.00 x 20.00 x 4.00 mm with 4*R25 shoulders; flexural 80.00 x 10.00 x 4.00 mm; impact 80.00 x 10.00 x 4.00 mm notched at 45°) | not in the median: measured after moisture conditioning |
| Tensile strength (yield or break not stated) XY | 122 ± 4 MPap. 2: Mechanical Properties (Conditioned), Tensile strength (X-Y) | ISO 527after moisture conditioningConditioned: immerged at ambient temperature for 3 days (medium not stated)annealed at 100 °C for 8 hAll specimens were annealed at 100 °C for 8 h, and immerged in ambient temperature for 3 days prior to testingprint settingsTensile, flexural and impact bars drawn on p. 3 (tensile 150.00 x 20.00 x 4.00 mm with 4*R25 shoulders; flexural 80.00 x 10.00 x 4.00 mm; impact 80.00 x 10.00 x 4.00 mm notched at 45°) | not in the median: measured after moisture conditioning |
| Tensile strength (yield or break not stated) Z | 30.2 ± 1.4 MPap. 2: Mechanical Properties (Conditioned), Mono-layer Z-axis tensile strength | no standard namedAs the sheet prints it: Custom methodafter moisture conditioningConditioned: immerged at ambient temperature for 3 days (medium not stated)annealed at 100 °C for 8 hAll specimens were annealed at 100 °C for 8 h, and immerged in ambient temperature for 3 days prior to testingprint settingsTensile, flexural and impact bars drawn on p. 3 (tensile 150.00 x 20.00 x 4.00 mm with 4*R25 shoulders; flexural 80.00 x 10.00 x 4.00 mm; impact 80.00 x 10.00 x 4.00 mm notched at 45°) | not in the median: measured after moisture conditioning |
| Elongation at break XY | 1.9 ± 0.1 %p. 2: Mechanical Properties (Conditioned), Elongation at break (X-Y) | ISO 527after moisture conditioningConditioned: immerged at ambient temperature for 3 days (medium not stated)annealed at 100 °C for 8 hAll specimens were annealed at 100 °C for 8 h, and immerged in ambient temperature for 3 days prior to testingprint settingsTensile, flexural and impact bars drawn on p. 3 (tensile 150.00 x 20.00 x 4.00 mm with 4*R25 shoulders; flexural 80.00 x 10.00 x 4.00 mm; impact 80.00 x 10.00 x 4.00 mm notched at 45°) | not in the median: measured after moisture conditioning |
| Flexural modulus XY | 8510 ± 240 MPap. 2: Mechanical Properties (Conditioned), Bending modulus (X-Y) | ISO 178after moisture conditioningConditioned: immerged at ambient temperature for 3 days (medium not stated)annealed at 100 °C for 8 hAll specimens were annealed at 100 °C for 8 h, and immerged in ambient temperature for 3 days prior to testingprint settingsTensile, flexural and impact bars drawn on p. 3 (tensile 150.00 x 20.00 x 4.00 mm with 4*R25 shoulders; flexural 80.00 x 10.00 x 4.00 mm; impact 80.00 x 10.00 x 4.00 mm notched at 45°) | not in the median: measured after moisture conditioning |
| Flexural strength XY | 190 ± 20 MPap. 2: Mechanical Properties (Conditioned), Bending strength (X-Y) | ISO 178after moisture conditioningConditioned: immerged at ambient temperature for 3 days (medium not stated)annealed at 100 °C for 8 hAll specimens were annealed at 100 °C for 8 h, and immerged in ambient temperature for 3 days prior to testingprint settingsTensile, flexural and impact bars drawn on p. 3 (tensile 150.00 x 20.00 x 4.00 mm with 4*R25 shoulders; flexural 80.00 x 10.00 x 4.00 mm; impact 80.00 x 10.00 x 4.00 mm notched at 45°) | not in the median: measured after moisture conditioning |
| Charpy impact strength XY | 7.8 ± 1.0 kJ/m²p. 2: Mechanical Properties (Conditioned), Charpy impact strength (X-Y) | ISO 179after moisture conditioningConditioned: immerged at ambient temperature for 3 days (medium not stated)annealed at 100 °C for 8 hAll specimens were annealed at 100 °C for 8 h, and immerged in ambient temperature for 3 days prior to testingprint settingsTensile, flexural and impact bars drawn on p. 3 (tensile 150.00 x 20.00 x 4.00 mm with 4*R25 shoulders; flexural 80.00 x 10.00 x 4.00 mm; impact 80.00 x 10.00 x 4.00 mm notched at 45°) | not in the median: measured after moisture conditioning |
| HDT at 0.45 MPa | 188 °Cp. 1: Filament Specifications, Heat Deflection Temperature, ISO75 0.45 MPa | ISO 75As the sheet prints it: ISO 75, 0.45 MPa | not in the median: set apart (never used to pass), test bar not described as printed |
| HDT at 1.8 MPa | 113 °Cp. 1: Filament Specifications, Heat Deflection Temperature, ISO75 1.8 MPa | ISO 75As the sheet prints it: ISO 75, 1.8 MPa | not in the median: set apart (never used to pass), test bar not described as printed |
| Melting temperature | 231 °Cp. 1: Filament Specifications, Melting Temperature | ISO 11357 | |
| Density | 1.15 g/cm³p. 1: Filament Specifications, Density | ISO 1183tested at 21.5 °C | |
| Moisture content | 0.6 %p. 1: Filament Specifications, Moisture content | ISO 62As the sheet prints it: ISO 62: Method 1 | |
| Melt mass-flow rate | 11 g/10 minp. 1: Filament Specifications, Melt index | no standard namedAs the sheet prints it: 280 °C, 2.16 kg | |
| Fibre content | 15 wt.%p. 1: Fibre content | no standard stated | |
| Raise3D, Raise3D Industrial PPA CF Safety Data Sheet1 value | |||
| Fibre content | 10-30%p. 2: Fibre content | no standard stated | |
Print settings
- Nozzle
- 280–310 °CBambu Lab Filament Guide
- Bed
- 100–120 °CBambu Lab Filament Guide
- Heated chamber
- enclosure needed, no temperatureBambu Lab Filament Guide
- Drying
- 80–100 °C for 6–12 hown data sheet
- Hardened nozzle
- neededown data sheet
- Annealing
- 100 °C for 8 hown data sheet
Its print profile, in the documents' words
- Drying Please dry the filament at 80-100°C for 6-12 hoursRaise3D, Raise3D Industrial PPA CF Technical Data Sheetp. 2: Drying note; p. 2: Nozzle note
Price
Not in the price sample.
Its 3 documents
What the maker says (9)
- Good for
It is promising for end-use applications in automotive, aerospace, electrical and electronics (E&E) industry.
Raise3D, Raise3D Industrial PPA CF Technical Data Sheetp. 1 - Benefits
Thanks to its high-performance Nylon matrix, this composite filament has superior mechanical properties than other Nylon filaments.
Raise3D, Raise3D Industrial PPA CF Technical Data Sheetp. 1 - Benefits
With well controlled dispersion and length distribution of chopped carbon fibers (15 wt.%), the PPA CF has lower density, lower moisture absorption, high strength and rigidity, high wear and creep resistance, excellent chemical and heat resistance.
Raise3D, Raise3D Industrial PPA CF Technical Data Sheetp. 1 - Odour and emissions
Odor / Almost odorless
Raise3D, Raise3D Industrial PPA CF Technical Data Sheetp. 1 - Warping and shrinkage
After annealing, max. 0.5% dimensional shrinkage could be observed in Z-axis depending on infill and layer height, no obvious dimensional shrinkage in XY-axis.
Raise3D, Raise3D Industrial PPA CF Technical Data Sheetp. 2 - Moisture sensitivity
After drying, we recommend to store PPA CF filament into Raise3D Filament Dry Box during the printing.
Raise3D, Raise3D Industrial PPA CF Technical Data Sheetp. 2 - Nozzle wear
Using abrasion resistance nozzle, as hardened steel and above grade nozzle is highly recommended.
Raise3D, Raise3D Industrial PPA CF Technical Data Sheetp. 2 - Supports and removal
Otherwise, the support structure could be permanently bonded to the model after moisture absorption.
Raise3D, Raise3D Industrial PPA CF Technical Data Sheetp. 2 - Supports and removal
If PPA CF is used as the support material for itself, please remove the support structure after annealing.
Raise3D, Raise3D Industrial PPA CF Technical Data Sheetp. 2
Chemicals and environment (5)
- Safety: described in words
Ensure good ventilation / exhaustion at the workplace. Wash thoroughly after handling.
Processing ventilationRaise3D, Raise3D Industrial PPA CF Safety Data Sheetp. 4: section 7.1, Advice on safe handling - Moisture sensitivity: described in words
Store spool in a dry, cool and ventilated place, at a storage temperature above 0 °C and at or below 40 °C.
Moisture handlingRaise3D, Raise3D Industrial PPA CF Safety Data Sheetp. 4: section 7.2, Conditions for safe storage - Safety: described in words
Stable at room temperature in closed containers under normal storage and handling conditions. No decomposition if stored and applied as directed.
Chemical stabilityRaise3D, Raise3D Industrial PPA CF Safety Data Sheetp. 7: section 10.2, Chemical stability - Disposal and circularity: described in words
The material should be disposed of by incineration in a chemical incinerator in compliance with national and regional requirements.
Raise3D, Raise3D Industrial PPA CF Safety Data Sheetp. 9: section 13.1, Waste treatment methods - Post-processing: described in words
After the printing, it is recommended to anneal the printed part at 80-100°C for 8 hours.
Raise3D, Raise3D Industrial PPA CF Technical Data Sheetp. 2: Annealing note
No product matches "".
Values are for the colour each sheet tested; pigment can change them.