Polycarbonate Filament: A Complete Guide

 |  Chhavi Malik

Polycarbonate Filament: Everything You Need to Know

Polycarbonate Filament

The strength, durability, and heat resistance of polycarbonate filament make it an adaptable material for 3D printing. Because of its hygroscopicity, polycarbonate filament readily absorbs moisture from its environment. When you open a polycarbonate product, be sure to keep it in a sealed, dry container. From basic characteristics to printing advice and post-processing processes, this thorough guide will cover all you need to know about polycarbonate filament. 

What Is Polycarbonate Filament?

A thermoplastic polymer, polycarbonate filament, is a popular choice for 3D printing. It is an impact-and-wear-resistant member of the engineering plastics family. The process of making polycarbonate filaments for 3D printers involves melting and extruding the resin into thin strands. These strands are subsequently coiled onto spools.

Properties of Polycarbonate Filament

The versatility and exceptional quality of polycarbonate filament are due to its many useful characteristics, such as:

-Strength: Polycarbonate filament is ideal for printing long-lasting prototypes and parts because of its extraordinary strength.

-Heat Resistance: Because of its high glass transition temperature (Tg), polycarbonate filament is ideal for uses that require resilience to high temperatures without melting or deforming.

-Transparency: Printing thin layers of polycarbonate filament allows for the construction of clear or translucent objects due to the filament's transparency.

-Impact Resistance: The high impact resistance of polycarbonate filament makes it an ideal material for components that must endure abrupt pressures or shocks.

-Chemical Resistance: Because of its resistance to a wide range of chemicals, polycarbonate filament finds widespread use in industries that regularly deal with solvents and other potentially damaging compounds.

The Printing Procedure Using Polycarbonate Filament

Compared to printing with other materials, printing with polycarbonate filament does require a few changes. To print successfully, consider the following:

-Printer Temperature: The printing temperature of polycarbonate filament is high, usually ranging from 250°C to 300°C (though this varies by brand and formulation).

-Bed Temperature: For printing with polycarbonate filament, it is crucial to use a hot build plate. For optimal adhesion and minimal warping, set the bed temperature to around 90°C to 110°C.

-Enclosure: To avoid warping or cracking, it is best to print with polycarbonate filament in an enclosed chamber that maintains a constant temperature.

-Print Speed: To avoid stringing and maintain good layer adhesion, polycarbonate filament, which has a high melting point, is best printed at slower speeds.

-Cooling: Polycarbonate, in contrast to other filaments, does not necessitate cooling when printing. If you want to avoid warping and quick cooling, you should probably switch off or at least reduce the speed of your cooling fans.

Post-Processing Methods and Procedures

You can enhance the look and functionality of your printed polycarbonate parts by using post-processing techniques:

-Smoothing and Sanding: If your printed pieces have any rough edges or flaws, sanding them down will assist. If you want a really flawless finish, polish it or use chemical smoothing afterward.

-Painting and Coating: You can paint or coat polycarbonate filament with a variety of finishes to make it look better or more resistant to chemicals and ultraviolet light

-Annealing: The process of annealing, in which polycarbonate printed components are heated to a certain temperature, can increase their strength and longevity by relieving internal stresses.

-Removing Support: Take care when removing any support structures so as not to harm the printed component. Remove the backing without damaging the component by carefully slicing it away using pliers or a hobby knife.

Best Polycarbonate Filaments in 2024

1. 3DXTech CarbonX

3DXTech CarbonX

Key features:

  • 500 Gram spool
  • 2.85mm Filament diameter
  • Carbon fiber nylon
  • Extruder: 240-270°C. CarbonX CFR Nylon exhibits improved layer bonding at higher temperatures.
  • Bed Temp: 80 - 100°C

Using carbon fiber, 3DXTech has improved upon the 3DXMAX's high heat resistance with CarbonX PC+CF. With the addition of carbon fiber, CarbonX enhances the PC's remarkable mechanical qualities and makes it even stiffer and more versatile.

Black is the only color available for this high-stiffness, high-temperature material. A toughened nozzle is necessary for printing with carbon fiber because of the material's abrasiveness.

Purchase link: Amazon.

Price: $61

2. Ultimaker Transparent PC Filament - 2.85mm (0.75kg)

Ultimaker Transparent PC Filament

Key features:

  • Compatible with all 2.85mm 3D printers, including all UltiMaker 3D Printers
  • Diameter: 2.85mm
  • Recommended nozzle temperature: 260 - 280°C
  • Recommended bed temperature: 110°C

The Transparent PC Filament by Ultimaker is an excellent choice for experts because of its reliability and great quality. Even when heated to 110°C, this filament retains its characteristics, making it exceptionally strong and dimensionally stable. Engineers and manufacturers may easily construct unique industrial models, end-use parts, tools, molds, and functional prototypes with this filament due to its flame-retardant characteristics and exceptional toughness. Furthermore, the optical translucency offers a flexible choice for making components with a pleasing appearance.

This filament guarantees a problem-free printing experience with any 2.85mm 3D printer, including the Ultimaker line. Because of its amorphous polymer nature, it can withstand high temperatures without losing its shape or strength. Printing with Ultimaker PC Filament, which comes in three neutral colors, gives models a more polished appearance. Another use for this filament is making two-colored models; the Ultimaker S5 and S3 3D printers have dual-extrusion capabilities that make this possible. Because of its high quality and performance, the filament costs $81.00.

Purchase link: MatterHackers.

Price: $81

3. Raise3D Black Premium PC Filament - 1.75mm (1kg)

Raise3D Black Premium PC Filament

Key features:

  • Filament diameter: 1.75mm
  • Spool weight: 1000g
  • Filament color: Transparent and colorless
  • Extrusion temperature: 270°C-310°C
  • Heat bed temperature: 100°C - 135°C

Among the many technical uses for Raise3D's Black Premium PC Filament are the creation of molds, tools, end-use components, prototypes, and bespoke industrial models. The filament takes advantage of lower-temperature materials' usual user-friendliness while retaining polycarbonate's great heat resistance, mechanical strength, and outstanding fracture resistance. Therefore, it provides the most of both worlds: low printing costs and long-lasting, high-quality prints.

If you own one of Raise3D's N2, Pro2, or E2 3D printers, you can confidently utilize their Premium PC Filament. This will keep you and your business within the Raise3D ecosystem. Polycarbonate is a popular material in manufacturing due to its cold malleability and bending strength without cracking. Filament absorbs moisture rapidly, therefore, using a warm bed and keeping it dry are crucial. This filament's sturdy qualities and versatility make it an excellent buy for $49.99.

Purchase link: MatterHackers

Price: $49

4. Polymaker PolyMax

Polymaker PolyMax

Key features:

  • Diameter: 1.75mm
  • Net Weight: 0.75kg
  • Print temp: 110 º C

The most durable PC material available from Polymaker is PolyMax PC, formerly PC-Max. By optimizing extrusion and warp resistance, PolyMax PC provides excellent performance without sacrificing printability—at least in the realm of PC. This PC filament outperforms the competition in terms of durability and impact resistance. Polymaker demonstrated its suitability for the most demanding applications by lifting 800 kg with a PolyMax PC hook.

Because of its exceptional printability and durability, PolyMax PC stands out among competing materials. It is available in both white and black color options.

Purchase Link: Polymaker

Price: $38.99 to $144.99

Best 3D Printing Software

There are many 3D printing software available that can prepare designs for 3D printing, and a good example is SelfCAD. It is an easy-to-use 3D modeling software that you can use not only to create 3D models but also to edit meshes and slice designs. 

It features interesting 3D modeling tools like freehand drawing and sketching that you can use to create designs from scratch. There are also easy-to-use selection modes as well as various modification tools to help you modify your designs based on your requirements. It also has an image-to-3D feature that makes it easier to turn photos to 3D models

You can also import STL files and modify them based on your needs. The software also includes a built-in online slicer that one can use to prepare designs for 3D printing. 

Print Smarter With Polycarbonate Filament

Polycarbonate filament is ideal for many 3D printing uses because of its adaptability, resilience to heat, and long lifespan. You can get the most out of polycarbonate filament for your projects if you know what it is, how to print it, and what to do afterward. Play around with various settings and procedures for optimal results and discover untapped potential in your 3D printing pursuits.

Frequently Asked Questions (FAQ’s)

1. What are the applications for polycarbonate filament?
Polycarbonates' most common uses include lights, electrical and electronic devices, and optical components. Bulky light bulbs, data storage discs, phones, and communication monitors are all examples.

2. Are PC and PLA equally powerful?
The strength and durability of polycarbonate filament surpass those of PLA filament by a wide margin.

3. Is printing on a PC somewhat challenging?

Printing with a PC can be challenging depending on your setup because of its high-temperature demand, cooling sensitivity, hygroscopic qualities, and adhesion concerns. Printing requires high heat. The processing temperatures needed, which should be higher than 300 °C, are sometimes beyond the capabilities of standard 3D printers.


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