TPU 90A Powder for the Formlabs Fuse Series lets you produce advanced, flexible elastomeric parts in-house. Thermoplastic Polyurethane is a remarkably elastic, resilient, and durable material that withstands wear and tear, oils, solvents, and greases. Its soft-touch properties also make it a practical choice for consumer products. The Fuse Series
Meet TPU 90A for Formlabs SLS, The New Fuse Series Material Read More »
While 3D printing large parts that are strong and durable is possible with high-performance plastics, Continuous Fibre Reinforcement (CFR) technology with the Markforged FX20 offers even better results. CFR uses a build material such as Onyx for the outer shell and infill and a composite like carbon fibre as a
Markforged FX20 – Expanding Large-Scale Capacity With CFR Read More »
Support materials are the cornerstone of advanced FFF, SLA, and DLP 3D printing, providing stability and strength to parts during printing and preventing part deformation and collapse. They are also beneficial in attaching a part to the print bed and ensuring that it remains fixed to the main body of
3D Support Material: What it is and How to Remove It Read More »
Selective Laser Sintering (SLS) printers like the Formlabs Fuse 1+ 30w use a high-powered laser to selectively ‘sinter’ powder in layers to create 3D objects. While FFF melts thermoplastic and extrudes it through a nozzle onto a build plate, and SLA uses a laser to cure liquid resin onto the build platform, SLS
SLS Additive Manufacturing: Is It Right for You? A 3D Technology Comparison Read More »
Continuous Fibre Reinforcement (CFR) can revolutionise engineering workflows by enabling the substitution of machined components with carbon fibre 3D printing. CFR offers advantages over traditional FFF, such as increased stiffness, impact resistance, improved heat resistance, and extended durability. CFR harnesses FFF technology but introduces a secondary nozzle that feeds in
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Industrial 3D printers are the workhorses of the 3D printing world, with the potential to print larger, faster, higher volumes of parts in various performance and engineering materials. A 3D printer’s ability to prototype, iterate, and produce intricate and complex models quickly can save resources that might be spent on
Industrial 3D Printers: Your Cost and Efficiency Guide Read More »
Print speed is a manufacturer battleground, but a faster 3D printer to get quick 3D prints on paper won’t necessarily be the quickest for you in the real world due to material requirements and build specifications. 3D print speed refers to the rate at which a 3D printer extrudes plastic
Quick 3D Prints: Choosing the Most Efficient 3D Printer Read More »
3D silicone printing opens new opportunities for production alongside traditional techniques like injection moulding, compression moulding, and casting. Despite the potential, silicone’s use in additive manufacturing is relatively limited because very high viscosity makes it difficult to control out of the nozzle. This introduces flow rate problems in standard 3D
3D Silicone Printing: How It Works & Ideal Applications Read More »
Flexible filament mimics the performance of various rubber types, letting you manufacture flexible and elastic components with a 3D printer. 3D printing’s unique ability to produce complex forms and geometries opens the door to countless possibilities with flexible materials, from soft contacts for machine tools to gaskets and inner grippers
Flexible Filament: When to Use it and Which You Should Choose? Read More »
While CNC machining and casting are traditional manufacturing methods for metal parts, metal 3D printing offers an alternative way by extruding high content metal filament or solidifying metal powder on a build plate. As an additive process, 3D printing requires no part-specific tools or moulds other than supports printed during
What Is Metal 3D Printing and How Does It Work? Read More »
