Engineering Plastics

PEEK vs PTFE: Material Comparison & Selection Guide Quick Summary: PEEK vs PTFE at a Glance PEEK (Polyether Ether Ketone) and PTFE (Polytetrafluoroethylene/Teflon) are both high-performance engineering plastics, but they serve completely different structural roles. The Rule of Thumb: If the component must bear heavy structural loads or resist crushing without changing shape, specify PEEK.

ASA vs ABS: Material Properties, UV Resistance, and When to Use Each ASA and ABS share a similar backbone chemistry and nearly identical processing behavior, but one critical difference separates them: UV and weathering resistance. Choose ABS for indoor applications, consumer electronics, and structural prototypes where cost efficiency and initial impact strength are paramount. Choose

Laser Engraving ABS Plastic: Material Properties, Optimal Settings, and Trade-Offs ABS is a versatile engineering plastic for laser engraving it produces clean, contrast-rich marks with minimal residue compared to cutting the same material. However, ABS has specific engraving requirements: incorrect settings cause charring, surface stress cracking, or toxic fume output. This guide covers the material

3D Printing ABS for Prototyping: When to Move to Injection Molding or CNC FDM-printed ABS is not the same material as CNC-machined or injection-molded ABS, same resin, different mechanical behavior. If your prototype needs to validate more than fit and form printing it can quietly mislead you. This guide breaks down exactly where FDM ABS

Delrin vs Teflon: Friction, Strength, Temperature, and Machining Differences Quick Answer: When to Choose Delrin vs Teflon Choose Delrin (POM) if your application requires mechanical strength, rigidity, and precision. It is the industry standard for gears, high-load bearings, and parts that must hold tight tolerances. Choose Teflon (PTFE) if you need extreme heat resistance or chemical inertness. It is the superior choice

Delrin 3D Printing: Challenges, Print Settings and Best Alternatives Can You 3D Print Delrin (POM)? Yes, but it is extremely challenging. Delrin can be FDM 3D printed using an all metal hotend (210°C–225°C), a high temperature bed (120°C–150°C), an actively heated chamber (60°C–80°C), and custom cellulose substrates with water diluted PVA adhesion. CRITICAL SAFETY WARNING:

Delrin® (POM): Properties, Grades, Applications & Material Selection Guide Delrin® is a high-performance acetal homopolymer (POM-H) engineering thermoplastic used for mechanical parts that need a combination of strength, stiffness, dimensional stability, low friction, wear resistance, and good machinability. It is commonly used for gears, bushings, bearings, rollers, precision components, sliding parts, and other mechanical applications.

Delrin vs. Acetal: Are They Even Different Materials? “Delrin” is a brand name for one specific type of acetal. It belongs to the acetal homopolymer family, generally shortened to POM-H. “Acetal” itself is the broader umbrella term, covering both POM-H and the other major branch, acetal copolymer (POM-C), sold under names like Hostaform, Celcon and

Laser Cut Delrin: Is It Safe, and What Settings Work? Yes, you can laser cut Delrin (POM-H acetal), and several commercial services do it. A 10.6 micron CO2 laser is reported to give clean cuts with smooth edges.[1] But the cut zone produces formaldehyde, some university makerspaces ban the material, and no published setting transfers