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FluorX PVDF

Ref.: 3DTECH-FLUORX-PVDF-NAT-175-750

188.00 €

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Quantity	Discount	Price
10	10% 10%	169.20 € 169.20 €

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Approximate delivery date: Monday 16 March - Monday 23 March

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In the technical filaments for industrial 3D printing segment, FluorX PVDF from 3DXTECH ranks as a top reference in searches related to PVDF filament, chemical-resistant filament, high-temperature 3D printing filament, and advanced materials for functional parts. Designed for demanding end-use applications, this high-performance PVDF filament combines thermal resistance up to 130 °C, extreme chemical stability, and advanced performance against UV radiation and flame exposure.

High-temperature PVDF filament: stability up to 130 °C

PVDF (polyvinylidene fluoride) is an engineering polymer recognized for its outstanding thermal and chemical resistance. In professional 3D printer filament format, it enables the production of functional parts capable of operating continuously at temperatures up to 130 °C without significant structural degradation.

This makes it a strategic solution for searches such as heat-resistant 3D printing filament, high-temperature 3D printing material, and technical filament for extreme industrial environments. Compared to conventional materials like PLA, ABS, or PETG, industrial PVDF filament stands in a superior category when thermal performance is critical.

Extreme chemical resistance: 3D printing filament for aggressive environments

PVDF filament for industrial 3D printing stands out for its resistance to automotive fluids, oils, fuels, lubricants, halogenated hydrocarbons, alcohols, acids, and bases. This advanced chemical resistance positions it as one of the best options for searches focused on solvent-resistant filament, 3D filament for the chemical industry, and material for parts exposed to aggressive chemicals.

Its long-term hydrolytic stability ensures consistent performance in humid environments or under continuous liquid contact, expanding its use across sectors such as automotive, energy, chemical processing, and industrial components subjected to severe conditions.

FluorX PVDF filament properties

Photo 1: FluorX PVDF filament properties. Source: 3DXTECH

Non-hygroscopic filament: technical 3D printing without drying

Within the engineering filaments for 3D printing category, moisture absorption represents one of the main operational challenges. FluorX PVDF is non-hygroscopic, meaning it does not absorb ambient moisture and does not require pre-drying.

This competitive advantage improves process stability, reduces surface defects, and enhances dimensional consistency in final parts, aligning with searches such as no-dry technical filament, stable industrial 3D filament, and advanced material for professional 3D printing.

V-0 rating and low smoke emission

The base material features a V-0 rating, delivering low smoke emission and excellent flame performance. This characteristic is critical in electrical, industrial, and technical applications where safety is a key factor.

High abrasion resistance: a technical alternative to nylon

Wear-resistant PVDF filament offers abrasion resistance comparable to materials such as Nylon or UHMW-PE, making it a robust solution for continuous friction applications, gears, guides, structural supports, and moving parts.

Part printed with FluorX PVDF filament

Photo 2: Part printed with FluorX PVDF filament. Source: 3DXTECH

Compatibility with automatic material management systems

The 750 g spools meet the dimensional requirements of automatic material management systems widely used in professional 3D printing, simplifying integration into automated production environments and optimizing advanced workflows. These spools are compatible with Bambu AMS, Creality CFS, and Anycubic ACE Pro systems.

ISO 9001:2015 certification and made in the USA

The ISO 9001:2015 certification validates an audited quality management system that ensures consistency and continuous improvement in every production batch. Manufactured in state-of-the-art industrial facilities in the United States, this engineering-grade PVDF filament meets the most demanding standards of the professional market.

Buy high-performance PVDF filament for professional 3D printing

FluorX PVDF from 3DXTECH represents an advanced solution for those seeking high-performance PVDF filament tailored to real industrial applications. Within the technical filaments for professional 3D printing segment, this material stands out for its balance of performance, reliability, and durability in demanding environments.

Its ability to operate up to 130 °C, combined with its high chemical resistance, UV stability, V-0 rating, and low moisture absorption, makes it a solid choice for manufacturing functional parts exposed to extreme conditions. The result is an industrial-grade 3D printing filament engineered to maximize dimensional stability, wear resistance, and the service life of critical technical components.

Video 1: A maker reviews FluorX PVDF filament. Source: My Tech Fun

General information
Material	PVDF
Format	750 g
Density	(ISO 1183) 1.71 g/cm³
Filament diameter	1.75 / 2.85 mm

Printing properties
Printing temperature	245-265 ºC
Print bed temperature	90-110 ºC

Mechanical properties
Elongation at break	(ISO 527) 25 %
Tensile strength	(ISO 527) 51 MPa
Tensile modulus	(ISO 527) 2450 MPa
Flexural strength	(ISO 178) 50 MPa
Flexural modulus	(ISO 178) 1800 MPa

Thermal properties
Softening temperature	(ISO 75 @ 0.45) 158 ºC

Specific properties
Flammability classification	UL 94 V-0 @1.5mm

Other
HS Code	3916.9

For a stable, high-performance industrial 3D printing process, an extrusion temperature between 245 °C and 265 °C is recommended, ensuring proper material fusion and excellent layer adhesion. The bed temperature should be set between 90 °C and 110 °C to optimize adhesion and reduce internal stresses.

A heated chamber is not required, although it may provide greater thermal stability in cold environments. A minimum 0.4 mm nozzle is recommended, with no special requirements, and a layer height of 0.10 mm or higher to ensure good layer bonding and mechanical strength.

The material does not require pre-drying, as it is non-hygroscopic. As a precaution, it can be dried at 65 °C for 4 hours if exposed to prolonged humidity.