Public Material Summary
Dataset identity, public test coverage, material/manufacturer distribution and the complete public score ledger.
Open HTML · PDF
Use only for fun, not for any professional comparison
Explore the allowlisted MaterialID, comparison, manufacturer, test-session, printing-recommendation and dataset reports.
Open Engineering Reports tab · Standalone directoryThis database is continuously expanding. YouTube review buttons open 3DPIceland Labs reviews when available, while Product page buttons open the manufacturer or reseller page for the filament. Public report buttons appear only for MaterialIDs explicitly selected for public reporting in the Engineering Platform. If a review link is missing or not working yet, the review video is still in production or scheduled for a future release.
Pricing intelligence
Explore public MSRP, measured performance per dollar and comparable value rankings. Filters are synchronized with the Filament Database so both tabs always use the same visible material set.
| Material | Type | MSRP | MSRP USD/kg | Landed USD/kg | Overall | Value index | Price checked |
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3DPIceland Labs
Published parameter studies and verified native test runs. Full chart visualization arrives in the dedicated Experimental Lab dashboard milestone.
Independent filament testing and manufacturer intelligence
3DPIceland Labs measures tensile strength, impact resistance, stiffness and layer adhesion using one controlled, repeatable workflow. Manufacturers receive independent technical visibility, comparable engineering context and long-term discoverability across the database, rankings, reports and relevant video coverage.
Manufacturer submission portal
Send production filament for inclusion in the 3DPIceland Engineering Platform. Materials enter the same documented print, measurement, calculation and verification pipeline as the rest of the database. Results are independent and data-driven; paid placement is not required and does not influence rankings.
Manufacturer enquiries: iskort@iskort.is
Structured email submission
Complete the form and your email application will open with a structured enquiry addressed to 3DPIceland Labs. No information is uploaded or stored by this website.
Measured manufacturer directory
Profiles, material coverage and engineering highlights below are generated from the canonical SQLite database and verified result summaries during every website export.
Sustainable materials
USA made, consistent quality
Prototyping, functional parts
Bio-based materials
Industrial polymers
Engineering quality
Industrial parts, tooling
European production
Precision manufacturing
Excellent consistency
Functional parts
Local production
High-speed printing
Optimized profiles
General & high-speed printing
Refill options
Material innovation
Innovative materials
Engineering, design
Renewable energy
Precision manufacturing
Tight tolerances
Functional parts
European production
Engineering polymers
Engineering materials
Industrial parts
CO₂ conscious production
Professional printing
German manufacturing, consistent quality
Functional parts, prototyping
Green electricity, eco packaging
Performance materials
Excellent quality
Engineering, design
European production
Reliable production
USA manufacturing
Education, industry
Local production
Broad material offering
Wide availability
General printing
Standard initiatives
Specialty materials
Exceptional finish, unique colors
Display models, decorative prints
Unknown
Engineering polymers
Outstanding consistency
Functional parts
Cardboard spools
Value engineering
Good value
Hobby & professional
Standard initiatives
Specialty materials
Unique materials
Specialty printing
Local production
Reliability
Exceptional QC
Professional printing
Recycled packaging
Consumer materials
Affordable
Everyday printing
Standard initiatives
European production
Good price/performance
General printing
European production
Engineering composites
Wide engineering portfolio
Industrial components
Standard initiatives
Value materials
Excellent value
General printing
Refill options
Consumer ecosystem
Excellent value
General printing
Cardboard spools
Engineering resins & filaments
High-performance materials
Functional prototypes
Standard initiatives
Affordable materials
Low cost
Hobby printing
Standard initiatives
Engineering & high-performance materials
Wide portfolio, strong quality control
General, engineering & industrial printing
ReFill system, recycled & bio-based materials
Consumer & prosumer 3D printing materials
Broad filament range, competitive pricing, high production capacity, strong aesthetic PLA selection, refill options
Makers, hobbyists, creators & prototyping
Refill system, eco-conscious materials & localized production
Standalone calculator based on the Print Farm Academy Excel sheet. Fill in the blue input fields to estimate material cost, labor, machine time, packaging, landed cost, and suggested customer pricing.
Labor cost uses print/post-processing labor, customer consulting time, and parts design / changes time.
Estimated Uptime uses a percentage from 0 to 100; enter 50 for 50%.
| Item | Name | Qty | Unit Cost | Total |
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| Item | Name | Qty | Unit Cost | Total |
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Final price is calculated from the landed cost and the user-defined target margin.
3D Printing Price Quote
Quote #:
Date:
Prepared using a calculator based on the Print Farm Academy pricing sheet.
| Description | Qty | Unit Price | Total |
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This quote is an estimate based on the supplied project information. Shipping is shown separately when entered in the calculator. Final pricing may change if the model, material, quantity, design requirements, shipping, or delivery requirements change.
One canonical catalog for the complete public report portfolio.

3DPIceland Labs
Generated with 3DPIceland Engineering Platform v60.0.6 WORKFLOW-RELIABILITY - Bug Fixes and Workflow Reliability
2026-08-25 19:07:28
Dataset identity, public test coverage, material/manufacturer distribution and the complete public score ledger.
Open HTML · PDFMaterial family: ABS
Open HTML · PDFMaterial family: ASA
Open HTML · PDFMaterial family: HIPS
Open HTML · PDFMaterial family: PA12
Open HTML · PDFMaterial family: PA6
Open HTML · PDFMaterial family: PC
Open HTML · PDFMaterial family: PC/PBT
Open HTML · PDFMaterial family: PCTG
Open HTML · PDFMaterial family: PET
Open HTML · PDFMaterial family: PETG
Open HTML · PDFMaterial family: PLA
Open HTML · PDFMaterial family: PP
Open HTML · PDFManufacturer: 3D Fuel
Open HTML · PDFManufacturer: Add:North
Open HTML · PDFManufacturer: Atomic
Open HTML · PDFManufacturer: BambuLab
Open HTML · PDFManufacturer: ColorFabb
Open HTML · PDFManufacturer: DasFilament
Open HTML · PDFManufacturer: Elegoo
Open HTML · PDFManufacturer: Eryone
Open HTML · PDFManufacturer: Extrudr
Open HTML · PDFManufacturer: FilaFarm
Open HTML · PDFManufacturer: Fillamentum
Open HTML · PDFManufacturer: IC3D
Open HTML · PDFManufacturer: Landu
Open HTML · PDFManufacturer: MatterHackers
Open HTML · PDFManufacturer: Polyalchemy
Open HTML · PDFManufacturer: Polymaker
Open HTML · PDFManufacturer: Prima Creator
Open HTML · PDFManufacturer: ProtoPasta
Open HTML · PDFManufacturer: Prusa3D
Open HTML · PDFManufacturer: Siraya Tech
Open HTML · PDFManufacturer: Spectrum
Open HTML · PDFManufacturer: Sunlu
Open HTML · PDFManufacturer: Thorwell
Open HTML · PDFManufacturer: Winkle
Open HTML · PDFManufacturer: Yasin
Open HTML · PDF3DPIceland Labs Mechanical Testing Methodology
This page documents the practical, repeatable test workflow behind the public database. It combines an accessible explanation with technical details for readers who want to understand specimen orientation, measurements, calculations, repeatability and known limitations.
Scope: These are comparative 3DPIceland Labs measurements produced with consistent in-house equipment and procedures. They are not certified ISO or ASTM datasheet values and should not be interpreted as a replacement for accredited laboratory testing.
The objective is controlled comparison across filament brands, material families, colors and reinforced variants. A result is most useful when the same specimen design, orientation, equipment and calculation path are used repeatedly. The database therefore emphasizes consistency and transparency over claiming laboratory certification.
Results are designed to compare materials measured within this system. Direct comparison with manufacturer datasheets requires caution because standards, conditioning and specimen geometry may differ.
Flat and upright specimens reveal different behavior. Flat specimens primarily represent strength through deposited roads, while upright specimens emphasize bonding between printed layers.
Multiple specimens are measured where applicable. Averages, variation, sample counts and confidence indicators help show how stable each result is.
Specimens are printed using a controlled internal test profile so that material-to-material differences are not hidden by changing geometry or general print strategy. Material-specific temperature requirements may differ, but the comparative workflow keeps the remaining relevant settings consistent within each test family.
Important: Print temperature, moisture, cooling, machine calibration, color additives and manufacturing batch can all affect the measured result. The database represents the tested spool and documented print conditions.
Mechanical test 01
What it measures: The peak pulling force required to break a narrowed printed specimen. Flat specimens are presented publicly as Tensile Strength; upright specimens are presented as Layer Adhesion Strength.
Peak force is converted to stress using the effective printed cross-sectional area at the designed failure zone. Internal void space is excluded rather than treating the complete outer rectangle as solid.
The native calculation engine uses a canonical effective cross-section of approximately 6.5016 mm². The fixture is designed for a practical range up to roughly 500 N. Fracture should occur in the narrowed gauge region; abnormal fixture or removal failures are excluded.
Mechanical test 02
What it measures: How much energy a printed specimen absorbs when struck by a pendulum hammer. A material that stops more of the hammer's motion receives a higher impact result.
The no-sample swing establishes the available pendulum energy. The specimen's remaining swing is used to calculate energy absorbed at fracture, normalized by the effective specimen cross-section.
The native calculation engine uses a no-sample reference angle of approximately 105.411° and a net section of approximately 0.00004816 m². Repeated empty swings indicated about 3% spread between the highest and lowest readings during early validation.
Mechanical test 03
What it measures: Resistance to bending under a defined load. A higher calculated modulus means the material deflects less and is therefore stiffer.
Measured center deflection is combined with load, support span and specimen geometry using the fixture's beam-deflection calculation to estimate stiffness in MPa.
The native calculation path uses approximately 1.058774 mm per revolution, a 118.2 mm support span, a 5.47 N load and a second moment of area of approximately 34.679467 mm⁴. Early same-specimen repeats showed roughly 5% variation after fixture repair and validation.
Mechanical test 04
What it measures: The nearby under-specimen BlueDOT probe-indicated fixture temperature when a flat specimen reaches 2.00 mm mid-span deflection. The governed result is recorded in °C under method 3dp-thermal-deflection-fixture-v1.
A higher result means the specimen reached the defined fixture deflection at a higher nearby probe temperature within this comparative workflow. It is not a certified heat-deflection temperature or a substitute for application-specific thermal validation.
The BlueDOT has no user calibration option. This fixture-specific method is not ASTM D648 or ISO 75 HDT, does not claim specimen-core temperature and does not infer missing results. Historical values remain tied to their immutable method version.
The displayed engineering value is based on the mean of the valid specimen measurements available for that orientation and test.
Standard deviation and coefficient of variation show the spread between specimens. CV relates the spread to the average, which helps compare consistency across values of different magnitude.
The confidence indicator combines sample coverage and measurement consistency. Lower confidence means the result should be interpreted more cautiously; it does not mean the material itself is weak.
The consistency score preserves the established formula: 100 minus average tensile/impact CV%, minus a small incomplete-sample penalty. It describes repeatability inside this test workflow, not accredited instrument accuracy or an industry standard.
With complete ten-specimen sets and no sample penalty, these bands correspond approximately to average CV ranges of 0–10%, 10–15%, 15–20%, 20–30%, 30–40% and above 40% respectively.
The most reliable use of this database is comparison between materials tested by the same 3DPIceland Labs workflow—not treating an individual number as a certified design allowable.
FDM parts are direction-dependent. Flat specimens emphasize the deposited roads, while upright specimens force the load across many layer interfaces. Reporting both exposes anisotropy that one orientation would hide.
Short fibers often increase rigidity and dimensional stability, but they can reduce ductility and do not automatically improve impact resistance or bonding between layers. Strength, stiffness, toughness and layer adhesion are separate properties.
Fragile specimens can fail during printing, removal from the build plate, brim removal or fixture preparation. Only usable measurements are included, and sample coverage is reflected in confidence.
They can provide useful context, but not a one-to-one replacement. Manufacturer values may use injection-molded specimens, standardized conditioning, different geometry and certified equipment.
No. The best material depends on the application. High stiffness may be desirable for dimensional stability, while a lower-stiffness, higher-impact material may be better for clips, guards or parts exposed to shocks.
Technical documentation
A more detailed Level 3 whitepaper is planned as the next documentation milestone. It will expand this page with complete equipment specifications, specimen geometry, calculation derivations, calibration and repeatability records, uncertainty discussion, database calculation ownership and methodology revision history.
Download Engineering Whitepaper (PDF)Current methodology version: 1.0 · Generated by the native Documentation EngineThe whitepaper will be generated from the same governed methodology source rather than maintained as a disconnected document.