Nylon - MXD6 is a kind of crystalline polyamide resin, which is synthesized by the condensation of m-benzoylamine and adipic acid.

ABS Plastic | Acrylonitrile Butadiene Styrene Engineering Thermoplastic ABS (Acrylonitrile Butadiene Styrene) is a widely used engineering thermoplastic known for its excellent impact resistance, mechanical strength, and processing versatility. ABS plastic is an amorphous polymer commonly used in automotive, electrical, consumer, and industrial applications. What Is ABS Plastic? ABS plastic is a thermoplastic polymer produced by polymerizing acrylonitrile, butadiene, and styrene. Each component contributes specific performance advantages: Acrylonitrile – chemical resistance and thermal stability Butadiene – toughness and impact resistance Styrene – rigidity, surface quality, and processability Due to this balanced structure, ABS engineering plastic offers high impact resistance, good dimensional stability, and easy processing, making it one of the most versatile thermoplastics on the market. ABS is non-toxic in solid form, provides good electrical insulation, and is widely accepted as a safe and reliable material for mass production. Main Advantages of ABS Plastic As a general-purpose engineering thermoplastic, ABS plastic offers the following key advantages: Excellent impact resistance and toughness Good mechanical strength with low weight Easy injection molding, extrusion, and machining Good surface finish and paintability Low electrical and thermal conductivity Cost-effective and widely available ABS can withstand repeated heating and cooling cycles, making it suitable for recyclable applications and long-term industrial use. ABS Plastic vs PLA: Material Comparison ABS and PLA are both popular thermoplastics, but they serve very different application requirements. ABS is a tougher and more durable engineering plastic, while PLA is primarily used for prototyping and hobbyist 3D printing. ABS vs PLA: Mechanical Strength ABS offers higher impact resistance and toughness than PLA PLA is stiffer but more brittle ABS vs PLA: Heat Resistance ABS softening temperature: ~105°C PLA softening temperature: ~60°C Due to its superior heat resistance, ABS is better suited for functional parts exposed to elevated temperatures. ABS vs PLA: Dimensional Stability & Accuracy PLA is easier to print and produces dimensionally stable parts during 3D printing. ABS, however, tends to warp during printing but performs better in real-world mechanical applications once molded. ABS vs PLA: Surface Finish Both materials show visible layer lines in FDM printing. ABS can be vapor-smoothed using solvents such as acetone, resulting in a smooth and glossy surface, while PLA typically requires sanding or coating. ABS vs PLA: Environmental Impact PLA is biodegradable under industrial composting conditions ABS is not biodegradable but is recyclable PLA degradation requires controlled industrial conditions and can take decades in natural environments. ABS offers long service life and durability for industrial products. ABS vs PLA: Cost Comparison Both ABS and PLA are low-cost thermoplastics. ABS may be slightly more expensive, but the difference is generally minimal and application-dependent. Typical Applications of ABS Plastic Thanks to its balance of toughness, processability, and cost efficiency, ABS engineering plastic is widely used in: Automotive interior and exterior components Electrical and electronic housings Consumer products and appliances Industrial enclosures and structural parts Injection molded and extruded components

Long Carbon Fiber Carbon fiber exhibits outstanding properties, including extremely high axial strength and modulus, low density, and excellent specific performance. It shows no creep, outstanding fatigue resistance, excellent corrosion resistance, and maintains stability at very high temperatures in non-oxidizing environments. Carbon fiber also features good electrical and thermal conductivity, effective electromagnetic shielding, a low coefficient of thermal expansion, and strong anisotropy. Compared with traditional glass fiber, carbon fiber offers more than three times the Young’s modulus and approximately twice the modulus of aramid (Kevlar) fiber. It is insoluble and does not swell in organic solvents, acids, or alkalis, making it highly suitable for corrosive and demanding environments. One effective way to reduce the cost of carbon fiber applications is to combine it with engineering plastics such as nylon, creating high-performance composite materials with optimized cost-performance balance. As a result, carbon fiber reinforced nylon has become an important material system in modern composite engineering. Nylon itself is a high-performance engineering plastic, but it suffers from moisture absorption, limited dimensional stability, and mechanical properties far below those of metals. To overcome these limitations, fiber reinforcement has been applied since the 1970s. Carbon fiber reinforced nylon significantly improves strength, stiffness, thermal stability, creep resistance, wear resistance, and dimensional accuracy. Compared with glass fiber reinforced nylon, carbon fiber reinforced nylon offers superior damping behavior and overall mechanical performance. Therefore, carbon fiber reinforced nylon (CF/PA) composites have developed rapidly in recent years. In particular, for additive manufacturing, SLS (Selective Laser Sintering) technology is considered one of the most suitable methods for processing carbon fiber reinforced nylon materials. TDS for Reference Applications Our Company Xiamen LFT Composite Plastic Co., Ltd. is a professional manufacturer specializing in Long Fiber Reinforced Thermoplastics (LFT & LFRT), including Long Glass Fiber (LGF) and Long Carbon Fiber (LCF) series. Our LFT materials are suitable for LFT-G injection molding, extrusion processes, and LFT-D compression molding. Fiber length can be customized from 5 to 25 mm according to customer requirements. Our continuous fiber impregnation technology has passed ISO 9001 and IATF 16949 certification, and our products are protected by multiple trademarks and patents.