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CAPABILITIES

Manufacturing support built around the part—not the printer.

Custom Parts

  • Replacement and hard-to-source components
  • Specialty mechanical parts
  • Wear components and guards
  • Low-volume custom manufacturing

Prototype Development

  • Functional prototypes
  • Design iterations
  • Fit and test components
  • Pre-production validation

Production Solutions

  • Short-run and repeat production
  • Jigs and assembly fixtures
  • Manufacturing tooling
  • Recurring MRO support
FILAMENT SELECTION GUIDE

Choose materials by performance and application.

Material Availability

Not all materials are in stock and are subject to varying lead times. Message or email us for current availability and specific material lead times.

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If this file is being viewed inside an iPhone preview, use the Quick Material Index or the requirement boxes above. In Safari/Chrome, the Search field filters materials live.
Material Cost: $ = lower material-cost tier; $$$$$ = highest material-cost tier. Dollar signs are comparison guidance only and are not part prices or quotes.
Temperature guidance: Values shown on each material are conservative application-screening limits/ranges for printed parts—not nozzle temperatures. Exact continuous-use capability varies by manufacturer grade, load, geometry, print orientation, moisture, exposure time and environment; use the selected grade's technical data sheet for final design approval.
Relative cost scale: Low · Moderate · Premium · Specialty · Ultra-Premium. This scale compares material expense only and does not indicate finished-part price.
Direct-print catalog rule: Materials listed here are intended to produce usable parts directly on the H2D or 22 IDEX v4. Drying, hardened nozzles, build-surface selection and normal printer-profile changes are allowed; materials requiring mandatory debinding, sintering, annealing, curing, plating or other secondary processing are excluded.
Specialty material note: Food-contact, ESD, metal-detectable, magnetic, metal-filled and radiation-shielding performance are grade- and process-specific. Metal-filled composites remain polymer composites—not solid metal. Final suitability depends on documented material, equipment cleanliness, print parameters, geometry, environment and the customer's required standard.
General PurposeH2D

PLA Basic

General-Purpose Polylactic Acid
Best for: Concept models; Fit-check prototypes; Patterns and light-duty parts
Easy-printing general-purpose PLA with a smooth finish and reliable dimensional behavior. Best suited to concept models, visual prototypes, fit checks, patterns and light-duty parts where elevated heat resistance is not required.
Material Cost$
Common colors: Wide color range
Typical temperature capability: approx. 50–60 °C (122–140 °F)
EngineeringH2D

PLA Tough+

High-Toughness Polylactic Acid
Best for: Durable tools; Clips and connectors; Impact-resistant prototypes
Impact-focused PLA engineered for substantially greater toughness and layer adhesion than standard PLA while retaining easy printing. Useful for durable tools, clips, connectors, RC components and functional prototypes where PLA processing simplicity is desired.
Material Cost$
Common colors: Black; White; Gray; Silver; Yellow; Orange; Cyan
Typical temperature capability: approx. 50–60 °C (122–140 °F)
General PurposeH2D

PLA Matte

Matte-Finish Polylactic Acid
Best for: Presentation models; Visual prototypes; Low-gloss housings
Easy-printing PLA formulated for a low-gloss, fine-grained surface that visually suppresses layer lines. Useful for presentation models, housings, mockups and fixtures where appearance matters more than elevated service temperature.
Material Cost$
Common colors: Wide matte color range
Typical temperature capability: approx. 50–60 °C (122–140 °F)
General PurposeH2D

PLA Basic Gradient

Gradient-Color Polylactic Acid
Best for: Display models; Branded prototypes; Demonstration parts
General-purpose PLA with gradual color transitions for display parts, demonstrators and branded prototypes while retaining straightforward PLA processing.
Material Cost$
Common colors: Multi-color gradient combinations
Typical temperature capability: approx. 50–60 °C (122–140 °F)
General PurposeH2D

PLA Silk+

High-Gloss Silk Polylactic Acid
Best for: Display parts; Decorative covers; Customer-facing prototypes
Silk-finish PLA developed for glossy decorative surfaces and strong visual presentation. Appropriate for covers, display components, prototypes and customer-facing models.
Material Cost$
Common colors: Multiple silk colors
Typical temperature capability: approx. 50–60 °C (122–140 °F)
General PurposeH2D

PLA Silk Multi-Color

Multi-Color Silk Polylactic Acid
Best for: Show models; Decorative prototypes; Multi-color displays
Silk PLA with dynamic multi-color transitions for high-visibility display models and presentation components.
Material Cost$
Common colors: Multi-color silk combinations
Typical temperature capability: approx. 50–60 °C (122–140 °F)
General PurposeH2D

PLA Metal

Metallic-Finish Polylactic Acid
Best for: Metal-look prototypes; Display housings; Decorative components
PLA formulated to mimic a metallic surface appearance without actual metal-particle loading. Provides a professional visual finish while retaining normal PLA-style processing.
Material Cost$
Common colors: Gold; Copper; Green metallic; Blue metallic; Iron gray
Typical temperature capability: approx. 60–65 °C (140–149 °F)
General PurposeH2D

Steel-Filled PLA

Real Steel-Powder Metal Composite PLA
Best for: Weighted knobs and handles; Metal-look fixtures; Display and specialty components
Direct-print PLA composite loaded with real steel powder for dense, cast-metal-looking parts. The printed part is usable as printed; brushing, sanding, polishing or patina work are optional cosmetic finishes and are not required to complete the part.
Material Cost$$
Common colors: Natural steel / gray; specialty colors may vary
Typical temperature capability: approx. 50–60 °C (122–140 °F)
General PurposeH2D

Iron-Filled PLA

Real Iron-Powder Magnetic Metal Composite PLA
Best for: Magnet-responsive parts; Weighted fixtures; Specialty hardware and demonstrators
Direct-print PLA composite containing real iron powder. It produces a heavier cast-metal feel and is ferromagnetic, allowing magnets to attract the finished printed part without any required secondary processing.
Material Cost$$
Common colors: Dark iron / gray
Typical temperature capability: approx. 50–60 °C (122–140 °F)
General PurposeH2D

Copper-Filled HTPLA

Real Copper-Powder Metal Composite HTPLA
Best for: Weighted specialty parts; Decorative hardware; Thermal-response demonstrators
Direct-print HTPLA composite containing real copper powder for dense parts with authentic metallic weight and surface character. Parts are usable as printed; polishing or patina is optional.
Material Cost$$
Common colors: Copper
Typical temperature capability: approx. 50–60 °C (122–140 °F) as printed; up to 150–175 °C (302–347 °F) after validated heat treatment
General PurposeH2D

Bronze-Filled HTPLA

Real Bronze-Powder Metal Composite HTPLA
Best for: Weighted components; Legacy-part replicas; Decorative fixtures and hardware
Direct-print HTPLA composite with real bronze powder for high-density, metal-like printed parts. The finished print can be used as printed, while brushing, polishing and patina are optional appearance treatments.
Material Cost$$
Common colors: Bronze
Typical temperature capability: approx. 50–60 °C (122–140 °F) as printed; up to 150–175 °C (302–347 °F) after validated heat treatment
General PurposeH2D

Brass-Filled HTPLA

Real Brass-Powder Metal Composite HTPLA
Best for: Weighted handles; Decorative machine details; Specialty fixtures and display parts
Direct-print HTPLA composite containing real brass powder. It provides a dense metal-like feel and authentic brass surface character while remaining a polymer composite that is complete directly from the printer.
Material Cost$$
Common colors: Brass
Typical temperature capability: approx. 50–60 °C (122–140 °F) as printed; up to 150–175 °C (302–347 °F) after validated heat treatment
General PurposeH2D

PLA Marble

Stone-Look Polylactic Acid
Best for: Architectural models; Display fixtures; Stone-look parts
PLA with a speckled mineral-style appearance for architectural models, fixtures, display components and visual prototypes.
Material Cost$
Common colors: Marble / stone-style tones
Typical temperature capability: approx. 50–60 °C (122–140 °F)
General PurposeH2D

PLA Sparkle

Sparkle-Finish Polylactic Acid
Best for: Premium mockups; Display components; Decorative housings
PLA containing visual-effect particles that create a subtle sparkling surface for premium-looking mockups and display components.
Material Cost$
Common colors: Multiple sparkle colors
Typical temperature capability: approx. 50–60 °C (122–140 °F)
General PurposeH2D

PLA Wood

Wood-Effect Polylactic Acid
Best for: Architectural models; Decorative fixtures; Wood-look prototypes
Wood-effect PLA for visual prototypes, architectural elements and decorative parts where a natural textured appearance is desired.
Material Cost$
Common colors: Wood / natural tones
Typical temperature capability: approx. 50–60 °C (122–140 °F)
General PurposeH2D

PLA Galaxy

Galaxy-Effect Polylactic Acid
Best for: Presentation pieces; Decorative housings; Display prototypes
Visual-effect PLA with a deep, speckled galaxy-style finish for display housings, prototypes and presentation pieces.
Material Cost$
Common colors: Dark visual-effect colors
Typical temperature capability: approx. 50–60 °C (122–140 °F)
General PurposeH2D

PLA Glow

Glow-in-the-Dark Polylactic Acid
Best for: Identification markers; Visibility aids; Display components
Glow-in-the-dark PLA for identification, visibility, markers and novelty or safety-adjacent visual components.
Material Cost$
Common colors: Glow green and specialty glow tones
Typical temperature capability: approx. 50–60 °C (122–140 °F)
EngineeringH2D

PLA-CF

Carbon-Fiber Reinforced Polylactic Acid
Best for: Rigid prototypes; Light-duty fixtures; Dimensionally stable models
Carbon-fiber reinforced PLA with substantially increased stiffness and improved dimensional stability while retaining comparatively easy PLA processing. Useful for rigid prototypes, lightweight fixtures and appearance-sensitive engineering models.
Material Cost$
Common colors: Black; multiple CF-finish colors
Typical temperature capability: approx. 50–55 °C (122–131 °F)
General PurposeH2D

PLA Aero

Lightweight Foaming Polylactic Acid
Best for: RC / aerodynamic parts; Lightweight models; Low-mass structures
Low-density foaming PLA designed for weight-sensitive models and aerodynamic structures where very low mass is prioritized over heat and wear performance.
Material Cost$
Common colors: Limited lightweight color range
Typical temperature capability: approx. 50–60 °C (122–140 °F)
General PurposeH2D

PLA Translucent

Translucent Polylactic Acid
Best for: Light diffusers; Indicators; Translucent prototypes
Translucent PLA for light-diffusing parts, visual prototypes, indicators and aesthetic components that benefit from partial light transmission.
Material Cost$
Common colors: Multiple translucent colors
Typical temperature capability: approx. 50–60 °C (122–140 °F)
General PurposeH2D

Nanovia PLA EF 3D850

Endocrine-Disruptor-Free Food-Contact PLA
Best for: Food-contact prototypes; Frequent-contact parts; Indoor fixtures
Bio-sourced PLA formulated for frequent-contact parts and prototypes, with Nanovia documentation for EU plastics food-contact regulation and FDA requirements. Useful when a documented PLA feedstock is preferred for food-contact-adjacent projects.
Material Cost$
Common colors: Natural / grade dependent
Typical temperature capability: approx. 55 °C (131 °F) max
General PurposeH2D

Nanovia PLA Flax

Flax-Fiber Reinforced Polylactic Acid
Best for: Natural-fiber prototypes; Decorative fixtures; Bio-based display parts
Bio-sourced PLA reinforced with non-abrasive flax fibers for a natural appearance, improved mechanical behavior and reduced PLA warping tendency.
Material Cost$$
Common colors: Natural flax / brown tones
Typical temperature capability: approx. 55 °C (131 °F) max
General PurposeH2D

Nanovia PLA VX

ISO 21702 Antiviral PLA
Best for: Frequently handled fixtures; Demonstrators; Specialty contact surfaces
PLA-based specialty filament with Nanovia antiviral surface technology certified to ISO 21702. Intended for frequently handled non-medical objects where documented antiviral surface activity is requested.
Material Cost$$
Common colors: Grade dependent
Typical temperature capability: approx. 55 °C (131 °F) max
General PurposeH2D

Nanovia PLA Wood

40% Pine-Compound Polylactic Acid
Best for: Wood-look prototypes; Interior displays; Decorative fixtures
PLA composite containing a high fraction of up-cycled pine powder for a realistic wood-like texture that can be stained or varnished after printing.
Material Cost$$
Common colors: Natural wood / light brown
Typical temperature capability: approx. 45–55 °C (113–131 °F)
General PurposeH2D

Nanovia PLA XRS

X-Ray-Shielding Polylactic Acid
Best for: X-ray-visible tools; Surgical-guide prototypes; Radiation-shielding demonstrators
Specialty PLA enriched with a nonferrous radiopaque shielding material for X-ray-visible tools, guides and shielding components. Shielding effect can be tuned through geometry, thickness and infill.
Material Cost$$
Common colors: Specialty grade / manufacturer dependent
Typical temperature capability: approx. 55 °C (131 °F) max
EngineeringH2D

ABS

Acrylonitrile Butadiene Styrene
Best for: Functional housings; Fixtures and guards; General mechanical parts
Tough, economical engineering plastic with good impact resistance and easy post-processing. A strong default for indoor housings, fixtures and functional prototypes.
Material Cost$
Common colors: Black; White; Gray; Red; Orange; Yellow; Green; Bambu Gree..; Blue; Navy Blue; Azure; Purple
Typical temperature capability: approx. 80–90 °C (176–194 °F)
EngineeringH2D

ABS-GF

Glass-Fiber Reinforced ABS
Best for: Rigid fixtures; Machine brackets; Dimensional tooling
Glass fiber increases stiffness, dimensional stability and heat performance while preserving much of the practicality of ABS. Good for rigid tooling and fixtures.
Material Cost$
Common colors: Black; White; Gray; Red; Orange; Yellow; Green; Blue
Typical temperature capability: approx. 90–100 °C (194–212 °F)
EngineeringH2D

ASA

Acrylonitrile Styrene Acrylate
Best for: Outdoor enclosures; Vehicle accessories; Weather-exposed brackets
UV- and weather-resistant engineering polymer for parts that live outdoors. It offers ABS-like toughness with substantially better resistance to sunlight and exposure.
Material Cost$
Common colors: Black; White; Gray; Red; Green; Blue
Typical temperature capability: approx. 95–105 °C (203–221 °F)
EngineeringH2D

ASA-CF

Carbon-Fiber Reinforced ASA
Best for: Outdoor structural parts; Camera and antenna mounts; Rigid lightweight brackets
Carbon fiber adds stiffness, lower shrinkage and a professional matte surface to weather-resistant ASA. Well suited to outdoor structural mounts and lightweight fixtures.
Material Cost$$
Common colors: Black
Typical temperature capability: approx. 100–110 °C (212–230 °F)
EngineeringH2D

PC

Polycarbonate
Best for: Impact-resistant guards; High-heat housings; Structural brackets
High-impact, heat-resistant material for tough parts that need more temperature capability than ABS or ASA. Useful for guards, housings and load-bearing components.
Material Cost$$
Common colors: Black; White; Clear Black; Transparent
Typical temperature capability: approx. 110–120 °C (230–248 °F)
EngineeringH2D

PC-FR

Flame-Retardant Polycarbonate
Best for: Electrical enclosures; Battery / power housings; Industrial electronics
Flame-retardant polycarbonate for electrical and industrial housings where heat, impact and fire behavior matter. Grade-specific certification should be confirmed per job.
Material Cost$$
Common colors: Black; Gray; White
Typical temperature capability: approx. 105–115 °C (221–239 °F)
EngineeringH2D

PC-ABS

Polycarbonate / ABS Alloy
Best for: Instrument housings; Automotive interiors; Durable prototypes
A balanced PC/ABS alloy combining high impact and heat performance with improved processability and surface quality. Excellent for durable production housings.
Material Cost$$
Common colors: Black; White
Typical temperature capability: approx. 105–112 °C (221–234 °F)
Engineering22 IDEX v4

PC-CF

Carbon-Fiber Polycarbonate
Best for: High-heat fixtures; Structural mounts; Rigid tooling
High-stiffness carbon composite based on polycarbonate. Offers excellent heat performance and rigidity for demanding tooling and structural machine components.
Material Cost$$$
Common colors: Black
Typical temperature capability: approx. 115–120 °C (239–248 °F) HDT/light-load benchmark
EngineeringH2D

TPU 95A HF

Thermoplastic Polyurethane
Best for: Gaskets and bumpers; Protective boots; Flexible couplers
Tough flexible elastomer for impact absorption, grip and repeated flexing. Shore 95A is firm enough for functional parts while retaining rubber-like compliance.
Material Cost$$
Common colors: Black; White; Gray; Red; Yellow; Blue
Typical temperature capability: approx. 60–80 °C (140–176 °F)
EngineeringH2D

PETG

Polyethylene Terephthalate Glycol-Modified
Best for: General functional parts; Covers and guards; Fluid-adjacent fixtures
General-purpose PETG for durable functional parts with good toughness, chemical and moisture resistance, and straightforward processing. A strong default when carbon-fiber reinforcement is not needed.
Material Cost$
Common colors: Black; White; Gray; Clear / Translucent; Multiple colors
Typical temperature capability: approx. 65–75 °C (149–167 °F)
EngineeringH2D

PETG-ESD

Electrostatic-Dissipative PETG
Best for: PCB assembly fixtures; ESD trays; Electronics housings
Carbon-nanotube modified PETG engineered to dissipate static charge for electronics handling, housings, trays and production fixtures. This is the dedicated electrical / ESD option when extreme heat or flame resistance is not required.
Material Cost$$$
Common colors: Black
Typical temperature capability: approx. 65–80 °C (149–176 °F)
EngineeringH2D

Food-Contact PETG

Food-Contact Co-Polyester / PETG-Type
Best for: Food guides; Packaging fixtures; Wash-down-friendly change parts
Documented food-contact-capable (often called food-grade) PETG / co-polyester grade for functional parts that benefit from toughness, moisture resistance and relatively easy printing. The finished printed article is not automatically certified by the raw-material rating.
Material Cost$$
Common colors: Clear / Natural; Black; White; Gray; Blue (grade dependent)
Typical temperature capability: approx. 65–75 °C (149–167 °F)
EngineeringH2D

PETG-CF

Carbon-Fiber Reinforced PETG
Best for: Jigs and fixtures; Mounts; Dimensionally stable prototypes
Easy-processing carbon composite with improved rigidity, lower gloss and better dimensional stability than standard PETG. A useful entry point for functional composite parts.
Material Cost$
Common colors: Black; Titan Gray; Brick Red; Malachite Gr..; Indigo Blue; Violet Purple
Typical temperature capability: approx. 70–75 °C (158–167 °F) HDT/light-load benchmark
EngineeringH2D

PET-CF

Carbon-Fiber Reinforced PET
Best for: Precision fixtures; Structural tooling; Machine brackets
Stiff, dimensionally stable carbon composite with excellent resistance to creep and heat. Strong choice for precision tooling, fixtures and structural brackets.
Material Cost$$
Common colors: Black
Typical temperature capability: approx. 180–205 °C (356–401 °F)
EngineeringH2D

Nylon 6 (PA6)

Unfilled Polyamide 6
Best for: Gears and wear parts; Snap fits; Functional mechanisms
Tough, fatigue-resistant nylon with excellent wear and chemical resistance. It is a classic engineering choice for gears, latches and mechanical components.
Material Cost$$$
Common colors: Black; Natural
Typical temperature capability: approx. 80–100 °C (176–212 °F)
EngineeringH2D

Nylon 12 (PA12)

Unfilled Polyamide 12
Best for: Fluid-system components; Durable clips; Chemical-resistant parts
Lower-moisture nylon with strong impact, chemical resistance and dimensional stability. Useful where PA6 toughness is desired with less sensitivity to humidity.
Material Cost$$$
Common colors: Black; Natural
Typical temperature capability: approx. 90–110 °C (194–230 °F)
EngineeringH2D

Nylon 6/66

Polyamide 6/66 Copolymer
Best for: Bushings and guides; Fittings; Mechanical housings
Wear-resistant engineering nylon balancing toughness, printability and chemical resistance. Suitable for functional mechanisms, fittings and production-grade components.
Material Cost$$$
Common colors: Black; Natural
Typical temperature capability: approx. 90–100 °C (194–212 °F)
High PerformanceH2D

PA612-ESD

Carbon-Fiber / CNT ESD Nylon 6/12
Best for: ESD jigs and fixtures; PCB handling nests; Cleanroom production tooling
ESD-safe carbon-fiber / carbon-nanotube nylon for production tooling that needs static dissipation, stiffness, dimensional control, heat capability and improved wear durability. It is wear-capable but is not a self-lubricating bearing polymer.
Material Cost$$$
Common colors: Black
Typical temperature capability: approx. 150–160 °C (302–320 °F) HDT/light-load benchmark
High PerformanceH2D

Nanovia PA FI

Nanovia PA Food Industry — Metal-Detectable Polyamide
Best for: Food-processing grippers; Guides and wheels; Wash-down change parts
Metal-detector-visible polyamide developed for food-processing environments. Nanovia documents EU and FDA food-contact compliance, chemical resistance to cleaning/disinfection agents and temperature capability above 100°C.
Material Cost$$
Common colors: Blue
Typical temperature capability: approx. 100–110 °C (212–230 °F)
EngineeringH2D

PA6-CF

Carbon-Fiber Nylon 6
Best for: Robotic tooling; Structural arms; Production fixtures
High-strength carbon-filled nylon for rigid structural components. It combines nylon toughness with much higher stiffness and reduced warping for production tooling.
Material Cost$$
Common colors: Black
Typical temperature capability: approx. 180–200 °C (356–392 °F)
EngineeringH2D

PA6-GF

Glass-Fiber Nylon 6
Best for: Heavy-duty fixtures; Pump brackets; Automotive components
Glass-fiber nylon for high stiffness, heat resistance and dimensional stability. It is well suited to rugged fixtures and under-hood style mechanical components.
Material Cost$$
Common colors: Black; White; Gray; Orange; Yellow; Blue; Brown; Lime
Typical temperature capability: approx. 155–190 °C (311–374 °F)
Engineering22 IDEX v4

PA12-CF

Carbon-Fiber Nylon 12
Best for: Production brackets; Chemical-resistant tooling; Lightweight structures
Low-moisture carbon nylon combining PA12 chemical resistance and dimensional stability with increased stiffness. Strong option for lightweight production parts.
Material Cost$$$
Common colors: Black
Typical temperature capability: approx. 120 °C (248 °F) continuous use; HDT about 130–150 °C (266–302 °F), grade dependent
Engineering22 IDEX v4

PA12-GF

Glass-Fiber Nylon 12
Best for: Precision fixtures; Industrial housings; Heat-resistant brackets
Glass-filled PA12 with excellent dimensional stability, heat resistance and low moisture sensitivity. Ideal for reproducible fixtures and industrial parts.
Material Cost$$$
Common colors: Black
Typical temperature capability: approx. 120 °C (248 °F) continuous use; HDT about 150 °C (302 °F)
High PerformanceH2D

PAHT-CF

High-Temperature Carbon-Fiber Nylon
Best for: Machining fixtures; Robotics tooling; Heat-exposed brackets
Low-moisture, high-temperature carbon nylon designed for accurate, stiff parts with strong layer adhesion. Excellent for functional tooling and demanding mechanical assemblies.
Material Cost$$
Common colors: Black
Typical temperature capability: approx. 180–195 °C (356–383 °F)
High PerformanceH2D

PPA-CF

Carbon-Fiber Polyphthalamide
Best for: Under-hood components; High-temp tooling; Precision structural parts
High-temperature carbon-filled PPA with strong dimensional stability, stiffness and moisture resistance. Built for demanding parts beyond conventional nylon performance.
Material Cost$$$
Common colors: Black
Typical temperature capability: approx. 210–227 °C (410–441 °F)
High PerformanceH2D

HTN-CF

High-Temperature Nylon + Carbon Fiber
Best for: High-temp fixtures; Industrial tooling; Structural end-use parts
Industrial carbon-filled high-temperature nylon offering exceptional stiffness and heat capability. Designed for structural tooling and parts exposed to elevated service temperatures.
Material Cost$$$$
Common colors: Black
Typical temperature capability: approx. 190–200 °C (374–392 °F) HDT/light-load benchmark
High PerformanceH2D

PPE/PS

Polyphenylene Ether / Polystyrene Alloy
Best for: Electrical bobbins; Precision housings; Heat-resistant fixtures
Low-moisture engineering alloy with strong thermal, electrical and dimensional properties. Useful for precision electrical components and heat-exposed housings.
Material Cost$$$
Common colors: Black
Typical temperature capability: approx. 120 °C (248 °F) HDT/light-load benchmark
Engineering22 IDEX v4

POM / Acetal

Polyoxymethylene
Best for: Bushings; Gears; Sliding wear components
Low-friction, wear-resistant acetal for sliding and rotating components. Its self-lubricating feel makes it attractive for bushings, gears and guides.
Material Cost$$
Common colors: Black; White
Typical temperature capability: approx. 100 °C (212 °F) long-term; up to 140 °C (284 °F) short-term
EngineeringH2D

iglide i190 PF

PTFE-Free Self-Lubricating Wear Tribofilament
Best for: Bushings; Wear pads; Guides and small gears
Purpose-built dry-running tribofilament for sliding and rotating wear parts. Solid lubricants provide low friction and high abrasion resistance, making it a stronger dedicated wear choice than general-purpose PETG or conventional structural filaments.
Material Cost$$$
Common colors: Beige; Black (grade dependent)
Typical temperature capability: approx. 90 °C (194 °F) maximum application temperature after component tempering
EngineeringH2D

iglide i151

Food-Contact Self-Lubricating Wear Tribofilament
Best for: Food conveyor guides; Bushings; Packaging change parts
Blue detectable food-contact / food-grade wear filament with embedded solid lubricants for low- to medium-speed sliding components. It is the closest FDM option in this catalog to UHMW-style dry-running wear and low-friction duty, while remaining a different polymer with its own service limits.
Material Cost$$
Common colors: Blue
Typical temperature capability: approx. 65 °C (149 °F) maximum permanent application temperature
EngineeringH2D

PP

Polypropylene
Best for: Living hinges; Chemical-service parts; Lightweight fluid components
Lightweight semi-flexible polyolefin with extremely low moisture uptake, excellent chemical resistance, good fatigue life and useful wear behavior. A strong option for living hinges, fluid-service parts and resilient lightweight components.
Material Cost$$
Common colors: Natural; White; Black; grade dependent
Typical temperature capability: approx. 90–100 °C (194–212 °F)
EngineeringH2D

Food-Contact PP

Food-Contact Polypropylene
Best for: Food fixtures; Living-hinge parts; Chemical-resistant guides and containers
Low-density food-contact-capable (often called food-grade) polypropylene with excellent chemical resistance and fatigue durability. It provides a useful UHMW-like polyolefin option for chemical resistance, resilience and relatively low-friction service, but should not be represented as a direct UHMWPE abrasion replacement.
Material Cost$$
Common colors: Natural / Translucent
Typical temperature capability: approx. 90–100 °C (194–212 °F)
Engineering22 IDEX v4

PP-CF

Carbon-Fiber Polypropylene
Best for: Chemical fixtures; Lightweight brackets; Fluid-system parts
Lightweight, chemically resistant polypropylene reinforced with carbon fiber for greater stiffness and lower shrinkage. Useful for fluid and chemical-service fixtures.
Material Cost$$$
Common colors: Black
Typical temperature capability: approx. 100–120 °C (212–248 °F)
High Performance22 IDEX v4

PPS

Polyphenylene Sulfide
Best for: Chemical-service components; Electrical parts; High-temperature mechanisms
High-temperature crystalline polymer with outstanding chemical resistance, low moisture absorption and inherent flame resistance. A workhorse for harsh industrial environments.
Material Cost$$$
Common colors: Natural; Black
Typical temperature capability: approx. 200–230 °C (392–446 °F)
High PerformanceH2D

PPS-CF

Carbon-Fiber Polyphenylene Sulfide
Best for: Chemical-service tooling; High-heat fixtures; Electrical / pump components
High-temperature, chemically resistant carbon composite with low moisture uptake and excellent dimensional stability. Intended for severe industrial environments.
Material Cost$$$
Common colors: Black
Typical temperature capability: above 200 °C (392 °F) continuous use; HDT up to 264 °C (507 °F) under 0.45 MPa
High Performance22 IDEX v4

PVDF

Polyvinylidene Fluoride
Best for: Chemical processing; Fluid-handling parts; UV-exposed components
Fluoropolymer with exceptional chemical, UV and radiation resistance plus very low moisture uptake. Excellent for aggressive fluid and outdoor process environments.
Material Cost$$$$
Common colors: Natural; White
Typical temperature capability: approx. 130 °C (266 °F) continuous use
High Performance22 IDEX v4

PVDF-GF

Glass-Fiber PVDF
Best for: Chemical fixtures; Precision fluid components; Electrical components
Glass-reinforced PVDF for increased stiffness and dimensional accuracy while retaining outstanding chemical and radiation resistance.
Material Cost$$$$
Common colors: Natural
Typical temperature capability: approx. 130 °C (266 °F) continuous use
High Performance22 IDEX v4

PSU

Polysulfone
Best for: Hot-fluid components; Sterilizable fixtures; Aerospace / industrial housings
High-temperature amorphous polymer with excellent hydrolytic, dimensional and impact performance. Suitable for repeated heat exposure and sterilization workflows.
Material Cost$$$$
Common colors: Natural / Amber
Typical temperature capability: approx. 160 °C (320 °F) long-term; up to 180 °C (356 °F) short-term
High Performance22 IDEX v4

PES / PESU

Polyethersulfone
Best for: Sterilizable fixtures; High-heat housings; Precision tooling
High-temperature sulfone polymer with excellent dimensional stability, creep resistance and flame behavior. Strong choice for hot fixtures and precision components.
Material Cost$$$
Common colors: Natural / Amber
Typical temperature capability: approx. 180 °C (356 °F) long-term; up to 220 °C (428 °F) short-term
High Performance22 IDEX v4

PPSU

Polyphenylsulfone
Best for: Steam-sterilizable tooling; Fluid-system parts; Impact-resistant high-heat parts
Very tough high-temperature sulfone polymer with excellent hydrolysis and sterilization resistance. Used for demanding industrial, medical-tooling and fluid applications.
Material Cost$$$$
Common colors: Natural / Amber
Typical temperature capability: approx. 170 °C (338 °F) long-term; up to 190 °C (374 °F) short-term
Ultra Performance22 IDEX v4

PEI 1010 / ULTEM 1010

Polyetherimide
Best for: Aerospace tooling; High-temp electrical parts; Production fixtures
Ultra-performance amorphous polymer offering high heat resistance, flame resistance and dimensional stability. Suited to aerospace, electrical and demanding production tooling.
Material Cost$$$
Common colors: Natural / Amber; Black
Typical temperature capability: approx. 170–180 °C (338–356 °F)
Ultra Performance22 IDEX v4

PEI 9085 / ULTEM 9085

Polyetherimide Blend
Best for: Aerospace brackets; Ducting hardware; Transportation components
Aerospace-proven PEI blend balancing high heat capability, toughness, flame behavior and reduced weight. Common for ducts, brackets and transportation applications.
Material Cost$$$$
Common colors: Natural / Amber; Black; Red
Typical temperature capability: approx. 150 °C (302 °F) long-term; up to 170 °C (338 °F) short-term
Ultra Performance22 IDEX v4

PEI-CF

Carbon-Fiber PEI / ULTEM 9085
Best for: Avionics fixtures; High-temp structural brackets; Precision tooling
Carbon-reinforced PEI for substantially increased stiffness and dimensional stability while retaining very high thermal performance.
Material Cost$$$$
Common colors: Black
Typical temperature capability: approx. 150 °C (302 °F) long-term; about 165–170 °C (329–338 °F) short-term/light-load
Ultra Performance22 IDEX v4

PEI-GF

Glass-Fiber PEI / ULTEM 1010
Best for: Precision high-temp fixtures; Electrical tooling; Structural housings
Glass-reinforced PEI for high stiffness, dimensional control and elevated-temperature performance. Ideal for repeatable production fixtures and electrical tooling.
Material Cost$$$$
Common colors: Natural
Typical temperature capability: approx. 170–190 °C (338–374 °F)
Ultra Performance22 IDEX v4

PEKK-A

Amorphous PEKK
Best for: Aerospace end-use parts; Chemical-service components; Extreme-temperature tooling
Ultra-performance PAEK-family polymer with exceptional thermal, chemical and mechanical properties. PEKK-A offers a wider processing window than conventional PEEK.
Material Cost$$$$$
Common colors: Natural; Tan
Typical temperature capability: approx. 230–260 °C (446–500 °F)
Ultra Performance22 IDEX v4

PEKK-A-CF

Carbon-Fiber PEKK-A
Best for: Metal-replacement brackets; Aerospace tooling; High-load fixtures
Carbon-reinforced PEKK combines ultra-high thermal and chemical resistance with much greater stiffness. Intended for high-value metal-replacement and aerospace applications.
Material Cost$$$$
Common colors: Black
Typical temperature capability: approx. 150 °C (302 °F) HDT/light-load benchmark; higher service requires validated crystallinity and print process
Ultra Performance22 IDEX v4

PAEK AM200

Victrex AM200 PAEK
Best for: Critical aerospace parts; Advanced medical tooling; Severe industrial service
Victrex additive-manufacturing PAEK designed to broaden the processing window relative to conventional PEEK while preserving exceptional heat and chemical performance.
Material Cost$$$$$
Common colors: Natural; Beige
Typical temperature capability: approx. 150 °C (302 °F) as a conservative direct-print screen; higher capability depends on validated crystallinity and print process
Ultra Performance22 IDEX v4

PEEK

Polyetheretherketone
Best for: Metal replacement; Oil and gas components; Aerospace end-use parts
Flagship ultra-performance thermoplastic with exceptional fatigue, chemical and high-temperature resistance. Used when conventional engineering polymers are not sufficient.
Material Cost$$$$$
Common colors: Beige; Natural
Typical temperature capability: approx. 250–260 °C (482–500 °F)
Ultra Performance22 IDEX v4

PEEK-CF

Carbon-Fiber PEEK
Best for: Compressor brackets; Aerospace structures; High-load metal replacement
Carbon-fiber PEEK increases stiffness and strength for severe structural service while retaining PEEK chemical and thermal performance.
Material Cost$$$$$
Common colors: Black
Typical temperature capability: approx. 250–260 °C (482–500 °F)
Ultra Performance22 IDEX v4

PEEK-GF

Glass-Fiber PEEK
Best for: Valve components; Electrical fixtures; Pump and process parts
Glass-reinforced PEEK for excellent dimensional stability, heat resistance and chemical durability. Valuable where stiffness and electrical insulation are important.
Material Cost$$$$$
Common colors: Natural; Tan
Typical temperature capability: approx. 250–260 °C (482–500 °F)
Ultra Performance22 IDEX v4

TPI

Thermoplastic Polyimide
Best for: Extreme-temperature insulators; Aerospace components; High-heat electrical parts
One of the highest-temperature melt-processable polymer families in the catalog. TPI is reserved for extreme thermal, electrical and aerospace applications.
Material Cost$$$$
Common colors: Natural / Amber
Typical temperature capability: approx. 220–230 °C (428–446 °F)
ACCEPTED PROJECT INPUTS

Send files we can use without compatibility guesswork.

For direct 3D-model submissions, PartOne accepts the formats below. We also accept fully dimensioned PDF engineering drawings and mailed physical parts for replication or enhancement.

InputH2D Workflow22 IDEX v4 WorkflowHow PartOne Uses It
STLAcceptedAcceptedReady-to-slice mesh geometry. Good for finished models when no CAD changes are expected.
STEP / STPAcceptedAcceptedPreferred for dimensionally controlled engineering geometry and parts that may require design changes.
3MFAcceptedAcceptedUseful for multi-part geometry and slicer project data. PartOne will still review and apply its own machine settings before production.
OBJAcceptedAcceptedAccepted mesh geometry, including complex surface models. Dimensional verification may be required.
PDF Engineering DrawingEngineering InputEngineering InputAccepted when the drawing contains all applicable dimensions, tolerances and functional requirements. PartOne creates or reconstructs the printable model before manufacturing.
Mailed Physical PartEngineering InputEngineering InputAccepted for dimensional replication, replacement-part development or enhancement. The final printer route is selected after geometry and material review.
Customer G-codeDo Not SendDo Not SendPartOne generates machine-specific toolpaths and G-code internally after engineering review. This avoids incompatible or unsafe printer settings.
Other formats: Please contact PartOne before sending a file type that is not listed above. For uploaded project files, use STL, STEP/STP, 3MF, OBJ or a fully dimensioned PDF engineering drawing.
REQUEST FOR QUOTE

Start with what you know.

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Up to 50 MB total per project inquiry. Accepted uploads: STL, STEP/STP, 3MF, OBJ, or a fully dimensioned PDF engineering drawing. For files over 50 MB, please contact PartOneMfg@outlook.com for a secure large-file transfer option. If no file is available, select the appropriate Project Input Method above.
Confidential & Proprietary Engineering Files
PartOne Manufacturing treats customer drawings, CAD files, specifications and related technical information submitted for a project as confidential and uses them only to evaluate, quote and perform the requested work, subject to necessary service providers used to securely process the submission. Do not upload classified information, CUI, ITAR/USML-controlled technical data, EAR-restricted technical data, or other legally controlled information through this public RFQ form. If an NDA must be executed before disclosure, contact PartOneMfg@outlook.com before uploading the files.