|
HS Code |
477096 |
| Material Type | Thermoplastic Elastomer (TPE) |
| Flame Retardancy | UL94 V-0 rated |
| Density | 1.1-1.3 g/cm³ |
| Hardness | Shore A 50-80 |
| Tensile Strength | 8-15 MPa |
| Elongation At Break | 200-500% |
| Weather Resistance | Good |
| Thermal Stability | Up to 120°C |
| Damping Property | Excellent vibration and noise reduction |
| Processing Method | Injection molding and extrusion |
| Colorability | Easily colorable |
| Halogen Content | Halogen-free |
| Recyclability | Recyclable |
| Compression Set | Low |
As an accredited Flame Retardant and Damping TPE factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 25 kg packed in durable, moisture-proof polypropylene bags, clearly labeled "Flame Retardant and Damping TPE" for safe handling and storage. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL): Loads 17-18 metric tons of Flame Retardant and Damping TPE, packed in 25kg bags, optimized for safe transport. |
| Shipping | The shipping of **Flame Retardant and Damping TPE** should be conducted in sealed, clearly labeled containers, protected from moisture, heat, and direct sunlight. The material is non-hazardous but requires careful handling to prevent contamination. Store and transport under dry, ventilated conditions according to local regulations and the manufacturer’s safety data sheet. |
| Storage | Flame Retardant and Damping TPE should be stored in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and strong oxidizing agents. Keep the material in its original, tightly sealed packaging to prevent contamination and moisture absorption. Avoid extreme temperatures and ensure proper labeling. Follow local regulations and material safety data sheet (MSDS) guidelines for safe storage. |
| Shelf Life | The shelf life of Flame Retardant and Damping TPE is typically 12 months when stored in cool, dry, and original packaging. |
Competitive Flame Retardant and Damping TPE prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615365186327 or mail to sales3@liwei-chem.com.
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Tel: +8615365186327
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For years on the production floor, challenges with material selection crop up every time strict fire safety and noise reduction requirements show up in a design drawing. Too often, certain elastomers either sacrifice flame retardancy or fail to reduce vibration impact to acceptable levels. Our team wanted to break free of that tradeoff. Through ongoing development and real-world testing at our facility, we developed a flame retardant and damping thermoplastic elastomer (TPE) designed for people who can't settle for basic protection—or a noisy final product.
We’ve built this TPE to answer calls from the cable, electronics, and automotive sectors for safer, cleaner, and quieter products. Every step in formulation reflects conversations with project managers, feedback from OEM teams on factory lines, and direct trials with parts that see day-to-day use—sometimes abuse—in the field. We've seen insulation jackets melt down under a forgotten cigarette in a lab, and dashboards chatter after years of sun and vibration. These things keep us focused on getting the formula right, not just ticking a regulatory box.
Each production run follows a strict quality path, because mistakes here mean wasted product, unhappy customers, and sometimes product recalls that can hit a plant’s reputation for years. We put forward our HFRD Series, an in-house family of TPEs combining halogen-free flame retardant chemistry with noise and impact damping ability. Every batch goes through physical, flammability, and dynamic mechanical testing at our site, so claims tie back to what really happens in labs and manufacturing, not a slide deck.
The HFRD 6202 and HFRD 6806 have both seen broad takeup. 6202 works best where cable sheath flexibility and electrical isolation are critical but local standards ban more toxic additives. Soft but tough, it wraps easily around copper or aluminum conductors during extrusion and survives repeated bending. The 6806 handles automotive interior damping—underfoot mats, dashboard attachments, or hook and loop pads exposed to both heating and jarring road shock.
We keep the melt flow in a workable range for injection or extrusion setups, because many plants align investment around a single line. Shore A hardness, tensile strength, and elongation properties come from mixing actual production blends and not just small lab samples. Technicians here have spent hours watching for faults in the extrusion profile, making adjustments batch-to-batch so that specs are met in actual production, not just on test coupons.
Building with fire risks in mind never starts with a sales table. Most of our engineers have visited plants after small fires, replacing burned wiring and melted hoses. Standards for low-smoke and non-dripping materials exist because every minute of burning matters for real people and real equipment. Lots of TPEs can resist heat, but only some can pass the more stringent tests for flame propagation, smoke density, and afterglow. We design our formulations using retardant agents that keep toxic halogens off the ingredient list. This choice still keeps burning rate and after-flame times low, without leaving corrosive smoke behind. Firefighters and maintenance teams appreciate that sort of detail even if it isn’t in the buying checklist at first glance.
Small differences in fire resistance make a concrete impact once the product goes into service. For electric tools, one stray arc can turn inferior jacketing into a flash fire and loss of equipment. In automotive power distribution, passenger safety depends on wire and mat materials that don’t feed a flame in a crash. We check conformity not just against national fire codes, but against the more demanding expectations many international customers ask for before committing to a new supply relationship.
In our early years, we worked with a local bus manufacturer who cut costs on insulation. Shortcuts quickly showed up as charring around cable bundles after a single electrical short. The switch to flame retardant and damping TPE brought clear improvements. Thermal imaging showed less heat buildup, and post-event inspection found less residue and easier cleanup. End users and safety managers notice that difference as uptime and peace of mind.
For most people, noise gets overlooked on the drawing board, but in practice, vibration and rattling can kill off a new product launch. Sitting in on root-cause investigations with automotive and appliance OEMs, it’s clear where basic elastomers fail: they transfer vibration from moving parts directly to user surfaces, or they break down after exposure to heat cycling and repeated flex. Regular TPEs might deliver passable flexibility, but without tuned damping, they can’t break up the shock peaks that cause dash resonances, buzzes, or tool handle shake.
We have invested time into tuning internal morphologies and filler ratios with the tools available in our compounding lines, so not only does our product deaden sound, but it holds that performance after cycles of compression and release. On-site trials with machine manufacturers show a difference right away—noise levels drop, panels stop vibrating, and technicians report fewer reworks. In consumer products, appliance makers see gains in product reviews and return rates; fewer complaints about noise mean fewer calls to service centers.
Technicians who deal with actual vibration analysis see how different blends handle dynamic loads. We have run our TPE compounds on high-speed cyclic testers until failure, so we know at which point damping drops off due to fatigue, and adjust recipes accordingly. No batch leaves the plant without this sort of feedback testing, because otherwise claims about damping are just marketing. Data-driven tweaks give customers predictable results, meaning less risk after a switch from traditional compounds.
End users—whether in a factory retrofit, utility tunnel, or vehicle cabin—rely on our TPE to deliver a feeling of security and comfort. In wet, oily, or chemically aggressive spaces, we see a marked improvement over historic rubbers and plastics. Competing PVC or basic rubber formulations can crack or degrade under oil vapor or regular physical abuse. Our experience with long-term soak and fatigue testing shows that well-chosen TPE outlasts them, keeping flame retardancy and shock absorption well past the typical service cycle.
During shipments to telecommunications projects in high-humidity regions, the material keeps its flexibility and protective properties. This avoids the cracking or embrittlement found commonly in low-cost alternatives. The same qualities build confidence for installers who need to feed cables through tight bends or snap covers on electrical junctions without worrying about stress breaks. Story after story comes in from maintenance teams surprised at the retention of softness after years of use.
Material choices affect not only performance but maintenance and replacement cycles. Breakdown of cheaper insulation leads to downtime and higher operational costs. Field replacements often cost far more than the marginal up-front savings from bargain compounds. Technicians on site demand materials that don't require frequent retightening or padding fixes. Our damping TPEs contribute to this goal, combining toughness and quiet performance, reducing noise-related complaints and failure-driven parts inventories.
Plants and customers are under growing pressure to remove toxic and persistent compounds from their supply chains. Halogen-free formulations grew out of a commitment to meet not just legal minimums but real environmental improvements. We don’t use brominated or chlorinated additives, which can generate corrosive gases or persistent residues if burned. Waste management teams, especially in recycling setups, point out the importance of plastics that decompose cleanly or can be safely processed without producing hazardous byproducts.
Material safety standards—such as RoHS and REACH—are not just regulatory targets but ways to secure trust across the supply chain. Large-scale users regularly send sampling teams to audit both the ingredients we use and the controls on our lines. They expect batch traceability and a transparent path from raw material through shipment. We deliver samples, test results, and location-specific data by request, because downtime and liability from non-conforming materials far outweigh the costs of quality management.
Responsibility extends to our employees and the neighboring communities. The production areas use exhaust and waste disposal systems designed to reduce hazardous exposure. Training focuses on recognizing off-spec batches early and containing potential spills or emissions before they leave the plant. Our ongoing dialogs with environmental inspectors aim for continuous process upgrades.
Not all flame retardant TPEs solve the same set of problems. Many traditional halogenated blends work for basic flammability, but they deliver poor results in sound or vibration control. Some regularly fail on flexibility, meaning installers struggle with cold bending or repeated handling. Polyethylene and PVC carry lower up-front cost, but frequently underperform in low smoke scenarios, giving off noxious gases when pushed into overload or fire conditions. Our years of post-mortem analysis on failed products teach that most field complaints fall on the shoulders of those tradeoffs.
Rubber and modified elastomers can handle vibration, but often come with drawbacks in flame resistance and environmental compliance. Older types of rubbers harden over time and release unsavory odors after exposure to electrical heating or industrial chemicals. TPE, with the right blend, stands up to repeated flex and compressions. It doesn’t become brittle or shrink dramatically with age. Dampers and bushings using our formulations hold shape and resilience, reducing maintenance costs and replacement calls.
Laboratories and independent auditors keep us honest about actual performance. Routine external tests validate every major claim, especially for larger infrastructure customers who face direct oversight from public regulators and safety engineers. Comparisons show clear advantages for non-halogenated, well-damped TPEs in functional lifespan, fire response, and post-event repair costs. Product recalls, often a result of overpromised yet underperforming material, underscore the need for on-site validation and tight process control.
We understand that trust is built on more than paperwork. Customers often send us their in-field scenarios—a new cable tray in an underground car park, a vibration damper for a next-generation inverter, or an appliance needing both low noise and safety credentials for international export. Instead of arm's-length advice, we prefer to mimic those real situations in our test schedules. The raw data from in-house and third-party labs finds its way into improvement cycles and guides our batch release process.
Production managers on both sides discuss adjustments for specific project needs. For automotive suppliers, color matching during overmolding remains a constant challenge, so we partnered with pigment specialists to reduce fading under UV and interior heat cycles. Cable manufacturers ask for flexible grades that still resist rodent chewing and rough installation pulls. Every request spins up a round of trial mixes, test runs, and feedback sessions, so no customer winds up running blind.
Feedback loops continue after product is in use. Service teams feed back reports of good performance—or, on occasion, early wear or installation issues. We treat those first signs as opportunities to improve, not reasons to shift blame. Each interaction keeps us close to the ground, making sure our TPE doesn't become a source of field problems.
On the assembly lines of a major appliance OEM, vibration damping used to mean improvising felt pads or double-taping panels. Since the introduction of a flame retardant and damping TPE for mounting feet and control board gaskets, rework rates dropped, and sound testing passes became routine. Customers receiving finished washing machines noticed a drop in operational noise, and service records show fewer calls about shaking during spin cycles.
In mass transit projects, cable fire has always been a top concern. After one incident led to massive delays and heavy replacement costs, engineers pressed for new jacketing that resists ignition and limits smoke. Our halogen-free TPE got deployed in a metro system, and six years later, spot checks show no visible embrittlement or loss in jacket performance. Operators praise the ease of cutting and terminating sheaths, which speeds up routine maintenance and reduces disruption to passenger service.
Tool handle production once presented difficulties in hitting both grip comfort and fire safety. Early runs with old-style rubber often slumped in batch consistency and would start to degrade when exposed to machine oils and electrical heating. Moving these to our flame retardant and damping TPE eliminated problems with decay and reduced customer complaints of hand vibration fatigue during long shifts.
Data centers historically struggle with air quality during emergency fires. One upgrade project replaced old PVC trunking with a halogen-free, flame retardant, and damping TPE. This cut smoke generation, permitted easier evacuation, and made post-fire cleanup simpler. Project managers noted the lack of sticky residue and toxic odors that otherwise doubled downtime after an incident.
Ever-changing standards, from UL 94 flammability to ISO damping benchmarks, keep pushing us to refine blends and test cycles. New applications—robotic cable carriers, medical device mounts, smart grid wiring—throw up fresh hurdles. By handling every technical challenge as a learning opportunity, we keep future-proofing our compounds.
Process investments—modernized batch mixers, digital compounding controls, improved material storage—cut down cross-contamination and improve consistency. Operators in our site improvement crews call out even minor shifts in odor, texture, or extrusion quality, diving into root cause analyses alongside our technical team. This hands-on attention to detail comes from knowing early problems in a lot mean late headaches for the user. The entire crew takes quality personally, because so many of our products wind up in workplaces and public areas we use ourselves.
By working alongside supply partners and direct customers, we're not just shipping out TPE. We're building relationships based on evidence and experience with every order. Customers don't only get a drum of material. They get ongoing support, data, and a transparent record of how each recipe got built and improved. All this flows back into the next upgrade or material tweak. Our future recipes will keep evolving, guided by the real demands of manufacturing and the unpredictable turns of end-use environments.
Years in the chemical manufacturing trenches taught us that real product quality springs from process knowledge, open communication, and a refusal to cut corners. Flame retardant and damping TPE blends like our HFRD Series address gaps left by standard grades—keeping people safer, products quieter, and maintenance headaches lower. Every kilogram carries not just compliance info, but a track record of successful deployments and data-backed improvement.
Technicians, engineers, and purchasing teams who choose our TPE find a partner ready to walk through project challenges, not just a vendor. The plant’s doors stay open to new feedback and new problems—a philosophy that guides us through every blend, every line startup, and every new industry standard. From the first trial spool to the millionth delivered meter of cable jacketing, we build materials shaped by experience, tested in the real world, and ready for the next set of demands.