Industrial new material PPA composite long carbon fiber higher performance lower price

MXD6 injection machine fiber glass mxd6 granules polymer which one is made in ourself factory.

High barrier nylon material MXD6 filling long glass fiber

Thermoplastic TPU LCF carbon fiber pellets for lightweight structural parts

MXD6 injection machine fiber glass mxd6 granules polymer which one is made in ourself factory.

LFT TPU long carbon fiber composite materials to make robot arms

With its unique balance of strength, barrier performance, and stability, MXD6-LGF is the ideal solution for demanding applications.

.card { background:#ffffff; border:1px solid #eaeaea; border-radius:14px; padding:22px; margin-bottom:20px; transition:all 0.3s ease; box-shadow:0 2px 10px rgba(0,0,0,0.04); } .card:hover { transform:translateY(-6px); box-shadow:0 10px 25px rgba(0,0,0,0.10); border-color:#cfead3; } h2 { color:#2f7d32; margin-bottom:12px; font-size:20px; } p, li { color:#666; font-size:15px; line-height:1.8; } ul { padding-left:20px; } .table { width:100%; border-collapse:collapse; margin-top:10px; } .table th, .table td { border:1px solid #e5e5e5; padding:10px; text-align:left; font-size:14px; } .table th { background:#f3f8f4; color:#2f7d32; } .cta-btn { display:inline-block; margin-top:10px; padding:12px 22px; background:#2f7d32; color:#fff; text-decoration:none; border-radius:8px; transition:0.3s; font-weight:bold; } .cta-btn:hover { background:#256428; } /* FAQ */ .faq { margin-top:10px; } .faq-item { border-bottom:1px solid #eee; } .faq-item input { display:none; } .faq-item label { display:block; padding:14px 0; cursor:pointer; font-size:15px; font-weight:bold; color:#2f7d32; position:relative; } .faq-item label::after { content:"+"; position:absolute; right:0; font-size:18px; } .faq-content { max-height:0; overflow:hidden; transition:all 0.3s ease; } .faq-content p { margin:0; padding:0 0 12px 0; color:#666; font-size:14px; line-height:1.7; } .faq-item input:checked ~ .faq-content { max-height:200px; } .faq-item input:checked + label::after { content:"−"; } Introduction to Long Glass Fiber Reinforced Homopolymer PP Long Glass Fiber Reinforced Homopolymer Polypropylene (PP-H LGF) is a high-performance thermoplastic composite designed to deliver excellent stiffness, improved impact strength, and cost efficiency while maintaining the lightweight nature of polypropylene. Composition and Structure PP-H LGF consists of a homopolymer polypropylene matrix reinforced with long glass fibers, enabling effective stress transfer and significantly enhanced mechanical performance compared to short fiber or mineral-filled PP. Key Features High Stiffness & Strength Excellent Cost-Performance Ratio Lightweight Material Improved Impact Resistance (vs. short fiber PP) Good Dimensional Stability Excellent Processability (Injection Molding) Typical Applications Automotive interior & structural parts Appliance housings Industrial equipment components Power tool housings Pallets & logistics components Our Working Process Customer Requirement Communication Material Selection & Technical Recommendation Sample Preparation & COA Support Order Confirmation & Delivery Technical Processing Support Technical Datasheet (PP-H LGF40%) Property Unit Value Tensile Strength MPa 135 Tensile Modulus GPa 8945 Flexural Strength MPa 189 Heat Deflection Temperature °C 159 Density g/cm³ 1.21 FAQ What is PP-H LGF? It is a homopolymer polypropylene reinforced with long glass fibers to improve mechanical strength and stiffness. What are the advantages of PP-LGF? It provides a balance of cost, lightweight properties, and improved mechanical performance over conventional PP. What is PP-H LGF used for? It is widely used in automotive, appliances, industrial parts, and logistics applications. Can PP-LGF replace metal? In many structural applications, it can replace metal due to its high stiffness-to-weight ratio. Is PP-H LGF suitable for injection molding? Yes, it is specifically designed for injection molding of structural components. Need Technical Support for PP-H LGF Materials? Contact our engineering team for material selection guidance, processing recommendations, and technical datasheets. Contact About LFT-G Xiamen LFT Composite Plastic Co., Ltd. is a global manufacturer of long fiber reinforced thermoplastics (LFT), offering PP, PA6, PA66, PPA, PPS, TPU and other engineering plastics reinforced with long glass or carbon fibers. Our products are widely used in automotive, electrical, industrial, and new energy applications.

What is ABS? 1. ABS plastic is a thermoplastic polymer structural material, mainly through propylene, butadiene and other chemical substances synthetic polymer material, also known as ABS resin, because of its good heat resistance, impact resistance, processing, so the use of a wide range. 2. Because ABS plastic is very hard, it has strong impact resistance, scratch resistance, dimensional stability and other properties, and has the characteristics of moisture, corrosion resistance, easy processing, etc., it is an ideal material. 3. ABS material also has good light transmission, compared with the same transparency of acrylic, although it has better toughness, the price is relatively high, and the color is not more than the color of acrylic, generally beige, black, transparent three colors. 4. ABS material is also very environmentally friendly, due to the use of environmentally friendly chemicals, so non-toxic and odorless, but also with electrical insulation, is a very safe material. 5. ABS material is easy to deform in a high temperature environment, and the deformation temperature is 93-118 degrees Celsius, but it performs very well in a low temperature environment, so it is also a high temperature resistant material. What Are the Advantages of ABS Plastics? ABS has some major advantages as a general-purpose engineering material. Below is a brief list of some of ABS plastic's advantages: ABS is inexpensive and plentiful, coming in many colors, material characteristics, and forms (pellets, tubes, bar, filament, etc.). ABS is sturdy, lightweight, and ductile, being easily machined but retaining good resistance to chemicals, impacts, and abrasions. ABS is more heat-resistant than other thermoplastics in its weight class and can withstand multiple cycles of heating/cooling, making it a fully recyclable plastic. ABS can achieve a highly attractive finish and is readily paintable. ABS has low heat and electrical conductivity. Compared with PLA Acrylonitrile Butadiene Styrene (ABS) was first patented in 1948 and commercialized in 1954 by the Borg-Warner Corporation. It is an amorphous thermoplastic polymer where the molecular structure is disordered. ABS is commonly manufactured via the polymerization of styrene and acrylonitrile. ABS is a tougher plastic than PLA. It can be used for applications that require significant strength and impact resistance. The Advantages of ABS Compared to PLA? ABS has a higher glass transition temperature than PLA. ABS is generally tougher than PLA. It can withstand impact loads and has better abrasion resistance.  PLA vs. ABS: Applications Comparison PLA is not widely used for typical consumer and industrial applications. It is mostly used for 3D printing in hobbyist applications or prototyping but has found some applications in the biomedical industry. ABS, on the other hand, is used as an engineering plastic across almost every industry. It is preferred for applications requiring toughness and impact resistance. PLA vs. ABS: Part Accuracy Comparison PLA is a very easy material to 3D print and it produces parts that are dimensionally stable. ABS, on the other hand, tends to warp easily during printing. PLA vs. ABS: Speed Comparison Both PLA and ABS can print at rates from 45 to 60 mm/s.  PLA vs. ABS: Surface Comparison 3D-printed PLA and ABS have the common FDM (Fused Deposition Modeling) surface finish with visible layer lines. However, ABS can be vapor smoothed with solvents like acetone while PLA must be hand sanded for optimal surface finish. The vapor smoothing process melts the surface, giving it a smooth and homogeneous finish. PLA vs. ABS: Heat Resistance Comparison PLA has poor heat resistance when compared to ABS. PLA will begin to soften at 60 °C whereas ABS does not begin to soften until 105 °C.  PLA vs. ABS: Biodegradability Comparison PLA is a bioplastic and biodegradable under the correct conditions. Unfortunately, these conditions are only present in industrial composting facilities. The required conditions include high temperatures and exposure to specific microbial environments. PLA can take up to 80 years to fully decompose in nature. ABS, on the other hand, is not biodegradable and can take hundreds of years to fully decompose.  PLA vs. ABS: Toxicity Comparison PLA is generally recognized as safe and non-toxic after printing. During printing, PLA releases VOCs (Volatile Organic Compounds). As such, it is not recommended to print PLA in an unventilated area. However, these VOCs are low in concentration and ventilation is just an added precaution. ABS contains no known carcinogens and has no adverse health effects once printed. However, ABS also releases dangerous VOCs and nanoparticles (UPFs) during printing, far more than is the case with PLA. As such, it is advised to cover printers with a hood and to utilize a ventilation duct. PLA vs. ABS: Cost Comparison PLA and ABS are among the lowest-cost materials used in 3D printing. Both can be pu...