|
HS Code |
661963 |
| Product Name | HRTP4000 |
| Material Type | Heat-Resistant and Recyclable Thermal Plastic |
| Maximum Service Temperature | 220°C |
| Glass Transition Temperature | 120°C |
| Melting Point | 240°C |
| Tensile Strength | 65 MPa |
| Elongation At Break | 8% |
| Density | 1.23 g/cm³ |
| Flammability Rating | UL94 V-0 |
| Recyclability | 100% |
| Thermal Conductivity | 0.21 W/mK |
| Impact Strength | 15 kJ/m² |
As an accredited HRTP4000(Heat-Resistant and Recyclable Thermal Plastic) factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | HRTP4000 is packaged in 25 kg, moisture-resistant, resealable polybags with clear product labeling, safety instructions, and batch identification. |
| Container Loading (20′ FCL) | 20′ FCL typically loads 18–20MT of HRTP4000, packed in 25kg bags on pallets, ensuring safe, efficient international shipment. |
| Shipping | Shipping for HRTP4000 (Heat-Resistant and Recyclable Thermal Plastic) is conducted in tightly sealed, moisture-resistant containers to maintain material integrity. Standard packaging includes high-density plastic drums or bulk bags on pallets. Transport adheres to industry regulations for non-hazardous materials, ensuring safe and efficient delivery under controlled temperature conditions. |
| Storage | HRTP4000 (Heat-Resistant and Recyclable Thermal Plastic) should be stored in a cool, dry, and well-ventilated area, away from direct sunlight, open flames, and strong oxidizing agents. Keep the material in tightly sealed containers or original packaging to prevent moisture absorption and contamination. Recommended storage temperature is between 5°C and 30°C to maintain optimal physical and chemical properties. |
| Shelf Life | HRTP4000 maintains optimal properties for 12 months when stored in cool, dry conditions, sealed in original, unopened packaging. |
Competitive HRTP4000(Heat-Resistant and Recyclable Thermal Plastic) 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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Over the past few years, the demand for advanced performance polymers has taken center stage in industrial manufacturing. The push for sustainability is no longer a passing trend. Every day on the plant floor, we hear the same question: how can a material offer real toughness, handle high temperatures, and still go back into the circular economy without compromising quality? As manufacturers in the field for decades, we have seen materials rise and fall in response to the ever-growing challenges of automation, precision engineering, and environmental policies. With HRTP4000, we’re not just following the trend—we’re part of those building it.
HRTP4000 stands as the result of thousands of hours spent next to twin-screw extruders, feedback by real production engineers, and plant visits from tier-one automotive and electronics customers. Its unique balance of heat resistance, impact durability, and recyclability comes from a backbone structure engineered to remain stable at elevated process and service temperatures, while offering smooth flow for complex mold designs. This material consistently resists deformation and discoloration where standard thermoplastics break down or warp.
Daily operations depend on materials that keep up with high-throughput presses, rapid cooling cycles, and stringent appearance standards. HRTP4000 runs clean, with less flashing, and delivers finished parts that pass visual and dimensional inspection even under tough molding conditions. Components built with HRTP4000 survive high-temperature slots near engine bays and precision connectors in power control systems. The days of sacrificing mechanical strength or clarity for thermal reliability are over. With this polymer, line managers and quality personnel watch reject rates drop and cycle times stay competitive.
Heat tolerance often steals the spotlight in polymers, but HRTP4000 brings more to the table than just standing up to ovens and soldering irons. Through repeated thermal cycling, it keeps tensile and impact strength far beyond the requirements for electrical housings, under-the-hood snap fits, appliance parts, and lighting enclosures. We have put batches of HRTP4000 through abrasion and chemical splash tests in our own application labs. After exposure to brake fluid, transmission oil, and cleaning agents, the molded parts hold their surface gloss, color, and mechanical performance. Life cycles stretch further. Downtime from premature failure shrinks. Audit trails reflect it: product recalls fade from concern lists, and real warranty costs fall.
Recyclability isn’t an afterthought in this formulation. It has been built into the polymer’s structure and manufacturing parameters from the early R&D phases. Regrind HRTP4000 into the next production lot—without unpredictable shrinkage, fisheyes, or black specks haunting the finished part. We have taken scrap from multi-cavity runs, processed it through our grinders, and hot-melted it back into the line at ratios that other so-called heat-stable thermoplastics cannot match. For plant managers facing landfill restrictions and stricter environmental reporting, this means audits come with fewer headaches and real steps toward zero-waste policies.
Comparing HRTP4000 to standard thermoplastics reveals a gap in real-world factory outcomes, not just on paper. Polypropylene and ABS can cost less at first glance but soften, warp, and yellow where HRTP4000 holds its shape and color. Standard polyamides draw moisture, leading to dimensional instability and unpredictable weld lines in electronic connectors or gear housings. HRTP4000 features a tightly controlled hygroscopic profile, avoiding the swelling and brittleness seen with nylon-based competitors. The formulation is self-extinguishing without relying on halogen-based flame retardants, a priority for manufacturers supplying to markets governed by RoHS and WEEE requirements.
We have worked shoulder-to-shoulder with toolmakers and process engineers to fine-tune melt flow and gate designs for HRTP4000. Thinner-walled parts release easily from molds; weld lines are tough and less visible, even under color-sensitive applications like automotive interiors and high-end consumer electronics. There is no need for post-mold annealing or excessive gate trimming. Whether you’re using vertical insert-molding presses or multi-shot machines, cycle times stay short and surface finish remains high.
HRTP4000 has proven compatible with common coloring systems, UV stabilizers, and process aids. We have poured it into high-speed injection units, extrusion-profile lines, and custom blow-molding heads. Consistency is the difference. Operators see fewer clogs or hot-runner contamination. Tool changeovers are smoother and cleaning costs drop. Supervisors watch capacity expand during peak demand periods because cleaning and maintenance interruptions shrink by a measurable margin. In electronics, companies run HRTP4000 into over-molded assemblies with thin-wall structures and micro-features. Components built from it hold up under tight tolerances for plug-and-play compatibility, and there’s less dependency on secondary finishing.
On the automotive side, our heat-resistant polymer has shown its worth in both prototype and mass-market builds. Air intake ducts, battery module frames, thermal shields—these parts run through engine heat, vibration, and exposure to road salts and hydrocarbons. Under accelerated aging protocols, HRTP4000 keeps dimensions and fastener torque values within spec, so downstream assembly-and-fit challenges rarely surface. Fleet durability testing returns positive marks, and supply chain planners appreciate that parts made from recycled HRTP4000 regrind flow back into production lines.
For designers and engineers, the palette of applications keeps widening. HRTP4000 processes at moderate pressures and standard barrel temperatures, so there’s no need to overhaul equipment or retrain staff. This polymer welds, ultrasonically joins, and laser marks as expected, without causing yellowing, burn marks, or distortion. Displays, sensor brackets, and lighting guide panels built from it stay clear and dimensionally sound under real-world handling and assembly conditions.
The notion that “green” materials always mean payback periods and hidden productivity costs doesn’t apply here. All the plant trials, customer audits, and side-by-side benchmarking tell the same story: HRTP4000 delivers high Cpk values, which means tighter, more reliable process windows. We have loaded production samples onto mechanical testers to track tensile, flexural, and Izod impact results after repeated processing cycles. Retained properties, even after four or five loops through extrusion and molding, speak for themselves.
Scrap generation on HRTP4000-molded parts sits far below industry averages, mostly because the material resists common defects like sink marks and voids even with challenging geometries. There’s less need for secondary sorting or costly rework. Floor space once spent on waste separation can be shifted to productive work. QA teams testing parts made from HRTP4000 quickly earn trust from regulators and end users, since the polymer performs the same in virgin, recycled, and multi-use blends. The line between “green” and “performance” disappears where this material is used.
Real-world results have made this polymer a common sight in automotive, electronics, industrial equipment, and smart home devices. In automotive assembly plants, HRTP4000 is running in electrical harness connectors, battery cases, and modular fairings that are exposed to under-hood temperatures exceeding 120°C. Secondary value shows up during post-life tear-downs, where the material’s integrity enables component recovery and closed-loop recycling.
In appliance manufacturing, we’ve seen HRTP4000 used in heating elements, microwave guide frames, and even oven handles. Parts that need to look sharp yet withstand repeated thermal shocks without cracking or discoloring benefit from this polymer’s reach. In office equipment and HVAC units, its low outgassing brings confidence in clean-room and electronics applications. Installers and end-users notice the difference through fewer component failures, easier part replacements, and less downtime.
Feedback from certification agencies highlights the importance of traceable formulation and stable sourcing. HRTP4000 is built on fully documented supply chains, with manufacturing tolerances kept tight across every batch. Each shipment undergoes thermal, mechanical, and chemical resistance verifications. Both batch consistency and traceability matter to us—reliability in high-visibility projects is built into every pellet.
Application engineers often need more than just a datasheet. On many occasions, we have worked side-by-side with customers, troubleshooting challenging molds, optimizing processing settings, and reviewing moldflow simulation data to ensure parts meet target requirements. This hands-on support comes from real plant experience, not from reading product brochures. We understand what it takes to swap in a new material and keep downtime to a minimum, which is why we share best practices openly and work onsite through all trial runs.
Commitment to sustainability shapes how we design, manufacture, and supply HRTP4000. This polymer breaks through the old compromise between durability and recyclability. Plant operators using HRTP4000 enjoy real progress toward eco-labeling and sustainable sourcing targets. Instead of shipping waste to landfill or dealing with regulatory fines, companies can feed molded scrap directly into production runs. As new governmental directives continue to tighten restrictions on single-use plastics, those who build with HRTP4000 watch regulatory audit risks decline and brand reputation improve. We manufacture with local sourcing in mind, cutting down on freight and logistics footprints and building regional supply resilience into every batch.
Our efforts do not stop with manufacturing. We have rolled out return programs that bring post-industrial scraps back to our plants for full traceability. Real progress on circular economy efforts comes from cooperation between material producers, molders, and end-users, all seeking to balance productivity, quality, and long-term responsibility. Running HRTP4000 means staying ahead of anticipated mandates and winning long-term market trust.
Switching materials disrupts operations. Downtime, equipment compatibility, retraining—all of these are real concerns for customers. Putting HRTP4000 through its paces across multiple customer plants, we have seen how processing windows remain forgiving. Thermal stability, low shear-induced yellowing, fast mold fill, and easy demolding all show up in daily operations, not just laboratory test sheets. Equipment operators report less machine wear, and maintenance managers track reductions in buildup on hot runners and barrel screws—all leading to longer service intervals and improved uptime.
With HRTP4000, material flow stays consistent, even in complex tools with tight tolerances. Operators spend less time chasing molding defects or adjusting back pressures. The shop floor no longer acts as a proving ground for untested resins; it becomes a stable, productive environment, leading to higher employee morale and streamlined production scheduling.
Supply chain disruption continues to challenge the industry, driving up lead times and raw material volatility. One way HRTP4000 helps manufacturers is through predictable, reliable deliveries—due to strong relationships with upstream suppliers and keeping buffer stocks ready. Each resin pellet comes from highly traceable lots, giving purchasing and inventory managers the data they need to plan ahead confidently. Should bottlenecks occur, the ability to recycle off-grade or out-of-spec material means less write-off, a faster pivot during shortages, and less production downtime.
Custom compounding remains possible. Our technical service teams have hands-on experience modifying HRTP4000 grades for flame retardancy, UV stability, and color saturation. Customers pushing into new territories can ask for formulation tweaks—without losing the trusted backbone of this proven polymer. Over the years, we've shown our willingness to work directly on production lines: monitoring first shots and offering real-time feedback as formulations shift, so customer deadlines and performance requirements never fall behind.
Stringent compliance standards shape every industry we serve. Our plants continually invest in materials testing and process validation to comply with global standards such as RoHS, REACH, and UL flame-testing protocols. HRTP4000, without relying on halogenated additives or heavy metals, meets safety and emissions requirements. Regular audits by independent labs provide extra assurance to procurement and sustainability teams. What this means in daily operation is fewer supply chain interruptions caused by regulatory red flags or unexpected changes in legislation.
Environmental safety extends beyond regulatory compliance. Production plants engineered for HRTP4000 maintain clean indoor air quality by limiting off-gassing and dust generation. Employees spend less time exposed to unpleasant fumes or dealing with unstable commodity blends. These are not just compliance boxes checked—they’re decisions rooted in the everyday realities of running world-class production.
Numbers from internal quality control speak volumes: consistent tensile strengths, flexural moduli, and thermal decomposition temperatures. More than that, working directly with customers in high-demand markets shows that HRTP4000 helps future-proof production lines. They gain a material that doesn't just tick boxes in a spreadsheet—it supports business expansion, meets tighter delivery schedules, and aligns with customer contracts demanding sustainable sourcing.
Relationships matter as much as formulation. From initial plant audits to process troubleshooting, our technical account teams have seen hundreds of launches and new product rollouts. Through years of iteration, fine-tuning, and mutual feedback, the HRTP4000 platform has grown roots across industries. Our commitment: if there is a way to improve, adapt, or optimize, we stand ready to support, not with call-center advice, but with boots on the ground inside customer plants.
In all, HRTP4000 is not just a polymer. It is a reflection of the best ideas and lessons learned from the factory floor, supplier dialogues, and customer partnerships. Manufacturers choose this material because each year, real data confirms its value—lower scrap rates, better lifecycle cost accounting, fewer regulatory headaches, and more robust circularity reporting. Instead of trading off performance against sustainability objectives, they achieve both. Long-term supply stability, real technical support, and practical troubleshooting ensure production lines keep running smoothly.
This is what sets HRTP4000 apart from simpler, lower-cost alternatives and legacy heat-resistant resins. What appears on the datasheet is backed by day-to-day evidence—hands-on process optimization, transparent documentation, and proven performance across a wide range of demanding industries. By building on this foundation, our customers and partners achieve more resilient operations, meet new challenges head-on, and gain the confidence to pursue innovation without fear of unstable supply or unpredictable results.
The story of HRTP4000 keeps evolving, shaped by the feedback from production lines, end-use performance testing, and the ever-changing demands of the global market. Every mold run, batch report, and customer review adds to the narrative—a material designed by and for those who live the realities of modern manufacturing. This isn’t just the future of heat-resistant, recyclable plastics—it’s the present for those ready to combine productivity, quality, and responsibility in practice, not just in theory.