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Specialized in PE, PVC, TPE, TPU and Low Smoke Zero Halogen (LSZH) wire and cable compound and materials.
In high-rise buildings, subway tunnels, new energy power stations and industrial complex scenarios, the fire safety of wires and cables is directly related to life and property and system reliability.
YINSU Flame Retardant Company provides customized flame retardant solutions for global customers, covering PE (polyethylene), PVC (polyvinyl chloride), TPE (thermoplastic elastomer), TPU (thermoplastic polyurethane) and LSZH (low smoke and halogen free) wire and cable systems to meet all safety requirements, ranging from UL94 V-0 flame retardant certification to EN 45545 fire protection for rail transportation and IEC 60754 low smoke and halogen free toxicity. All-round safety requirements.
Material Common Use Typical FR Type YINSU Flame Retardant Item No.
PE HDPE, LDPE, LLDPE, Red phosphorus, halogen free FR, PRP-950X, PE-XT-20, B-HFFR, MCA-B, WADP-10
Cross-linked PE cables, Bromine antimony masterbatch FR-ML-01, K100
Plastic insulated cables.
PVC PVC &Plastic insulated power cables, ATO alternatives T3, T30, FRP-950X, K100, ZHS, ZS, ZSB-A
Aluminum stranded wires, Zinc stannate
Prefabricated branch cables.
TPE Insulated wires, flexible cables Organic phosphorus MCA-B, WADP-10, FRP-950X, 95-MC
Shielded insulated cables
TPU Special purpose cables Organic phosphorus MCA-B, WADP-10, FRP-950X, 95-MC
Power cables for frequency converters.
Others Welcome to consult more details.
A single-strand combustion test can only demonstrate that the cable material itself is self-extinguishing, whereas bundle combustion testing is the “ultimate test” for evaluating a cable bundle’s ability to resist flame spread in a real fire. The challenges of bundle combustion testing lie in the chimney effect causing heat accumulation, molten droplets igniting materials below, and auxiliary materials such as filler ropes acting as flame pathways. The silver-plastic flame-retardant K100 nano-organic montmorillonite char-forming synergist, through intercalation modification technology, forms a dense, barrier-like char layer during combustion that traps molten material to prevent dripping. When used in conjunction with primary flame retardants such as ATH and MDH, it helps ensure consistent success in bundle burning tests.
GB 8624-2023 has included building piping materials within the scope of Class B1 flame retardancy. Rigid PVC pipes coated with 8 parts of red phosphorus can meet Class B1 requirements, while their ring stiffness and drop-weight impact resistance comply with GB/T 10002.1. Flame retardancy requirements for piping materials used in high-rise buildings, subways, and data centers are shifting from “optional” to “mandatory.”
The PE-XT-141 bromine-antimony masterbatch, developed by Yinsu Flame Retardant Company, is a reactive and additive flame-retardant masterbatch that directly addresses the issue of “passing tests but failing on the production line.” This article introduces the product’s key selling points and answers several questions frequently asked by engineers.
High filler loading in LSZH materials causing agglomeration, poor flow, and excessive brittleness? YINSU Flame Retardant breaks down the five major processing pain points and root causes of ATH/MH-filled systems, offering integrated solutions including surface modification, synergistic compounding, and elastomer toughening—helping you achieve the balance between V-0 flame retardancy and processability.
The enclosed spaces of spacecraft impose stringent requirements on flame retardant materials. How can Low Smoke Zero Halogen (LSZH) materials simultaneously achieve halogen-free properties, low smoke emission, high flame retardancy, and extreme environment stability? YINSU Flame Retardant systematically analyzes the mechanisms, standards, and core applications in aerospace cables and structural components, providing technical references for high-end flame retardant material selection.
Aluminum hydroxide a reliable flame retardant, but it also offers a favorable environmental profile. Its non-toxic nature, minimal smoke production, and absence of harmful gas emissions align with sustainable fire safety practices and regulations. By choosing aluminum hydroxide, we can ensure that fire safety measures prioritize both human health and environmental impact. While aluminum hydroxide presents numerous advantages, it is crucial to consider its limitations. The potential impact on mechanical performance, high filler content requirement, limited thermal stability, and the importance of particle size and distribution should be carefully weighed when using aluminum hydroxide as a flame retardant.
