|
HS Code |
939194 |
| Material Type | Polyamide (PA12) |
| Thermal Conductivity | 0.25 W/m·K |
| Operating Temperature Range | -40°C to 125°C |
| Inner Diameter | 6 mm |
| Outer Diameter | 8 mm |
| Pressure Rating | 16 bar |
| Chemical Resistance | Excellent |
| Flexibility | High |
| Weight Per Meter | 0.06 kg |
| Uv Resistance | Yes |
| Flammability Rating | UL94 V-0 |
| Color | Black |
As an accredited New Energy Thermal Management System Tubing Material factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging consists of 25 kg sealed drums, clearly labeled "New Energy Thermal Management System Tubing Material" with safety and handling instructions. |
| Shipping | The shipping of "New Energy Thermal Management System Tubing Material" is handled with care, utilizing robust, chemical-resistant packaging to prevent damage and contamination. Materials are clearly labeled and transported following relevant safety protocols. Expedited and tracked delivery options ensure timely arrival, maintaining the product's integrity throughout the shipping process. |
| Storage | The New Energy Thermal Management System Tubing Material should be stored in a cool, ventilated area away from direct sunlight, heat sources, and moisture. Keep packaging sealed until use to prevent contamination. Avoid exposure to corrosive substances and mechanical damage. Ensure the storage area is clean and comply with safety regulations for chemicals. Store separately from incompatible materials. |
Competitive New Energy Thermal Management System Tubing Material prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to sales3@ascent-chem.com.
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Tel: +8615365186327
Email: sales3@ascent-chem.com
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Every day in our plant, we see the evolution of new energy vehicles up close. The entire industry puts greater pressure on engineers to keep batteries in the optimal temperature zone. Traditional rubber lines and generic polymer hoses just cannot meet the sharply higher safety and life cycle expectations of next-generation electric vehicles. That’s why we re-focused our resources into the development of dedicated thermal management tubing material, moving beyond off-the-shelf compounds and deep into research on molecular compatibility, pressure stability, and chemical resistance at elevated temperatures.
Our new tubing material arrives after countless hours refining both formula and extrusion profiles on the factory floor. Early on, skilled engineers tested competitors’ products side-by-side under cyclic thermal stress, rigorous vibration, and aggressive coolant exposure. Ordinary rubber and flexible PVC quickly developed cracks, warping, and intermittent leaks. There were failures at weld joints and swelling at hose ends where the weakest compounds couldn’t endure battery pack heat spikes or the acidic byproducts of glycol coolants. This kind of structural breakdown shortens the effective lifespan of critical electrical components, endangering long-term warranty and driving up cost of ownership for end users.
We manufacture and supply a tubing material modeled for advanced electric vehicle battery cooling. This new formula blends semi-crystalline thermoplastics and high-performance elastomers, backed by carefully quantified levels of aramid or glass fiber reinforcement for dimensional stability. The combination gives our tubing a strong resistance to hydrolysis, minimizing risk from water-glycol coolant blends. We avoid fillers that introduce micro-porosity, eliminating factors leading to early diffusion or chemical corrosion. Laboratory tear and tensile strength consistently exceed those measured in vinyl, nitrile, or lower-tier TPE pipes.
Hydraulic engineers value our product for its long-term flexibility, delivering reliable performance even under sharp bends and repeated thermal cycling. Actual field tests show minimal size drift after more than 300,000 simulated charge/discharge cycles in fluctuating climates. The tubing handles elevated temperatures up to 135 degrees Celsius and exposure to synthetics like G48, G13, or Asian phosphate hybrid coolants. Where generic rubber pipes lose mass and exhaust odor after a few months, our formulation demonstrates almost negligible mass loss, preventing contamination of sensitive battery modules.
In our shop, we often cooperate with vehicle designers revising layout plans for battery modules. Large banks of cells require tightly routed cooling lines, sometimes with complex 3D bends and variable diameter transitions. Over the years, we’ve molded this material to stay supple for efficient assembly, resisting flattening even in the narrowest passages. Its soft gloss exterior lets lines push through cable ways without snagging, and an engineered low compression set supports firm sealing at quick-connect joints. We keep strict tolerances on outside diameter — usually within +/-0.1mm on bulk reels — for automated feed systems and robotic assembly arms now common on global EV lines.
Weight matters for battery range, so we’ve engineered our tubing to run at thinner wall profiles wherever possible without sacrificing pressure containment. Engineers sourcing our material for high-density packs report up to 30 percent reduction in tubing weight compared to legacy rubber hose. This translates directly into greater energy efficiency on the vehicle. Welding and assembly shops appreciate how our product doesn’t spit smoke or toxic fumes under localized radiant heat. This was a recurring problem during legacy maintenance, especially on higher amperage buses and commercial vans.
Every batch coming out of our mixing line faces rigorous soak, pressure and electrical integrity testing. Many tubing competitors gloss over ion content and electrical isolation, leading to micro-leakage and then galvanic corrosion inside modules. In our process, we calibrate extraction rates of metals and ionic residues far below industry guidelines, protecting battery terminals and electronic controllers. After debris-cleaning or repair, traditional tubing products often don’t reseal properly, letting air bubbles form, followed by dangerous cavitation or cold spots inside the cooling path. Because our tubing remains dimensionally stable after repeated removal and reseating, field technicians depend on it for serviceability over many replacement cycles.
We know battery makers invest millions in testing, so we cut down unknowns by supplying a product with clean, documented input sources. All of our main polymer bases have full resin traceability and our color matching never sacrifices UV resistance or coolant compatibility. Outside the lab, we have witnessed this tubing performing reliably in exposed underbody routes, inside engine bays, and in tight power electronics housings. It withstands splashes of petroleum products, detergents, and even light acid without pitting or discoloration, helping vehicle fleets cut lifetime service hours spent on thermal management.
Tight regulations don’t motivate us as much as experience seeing what happens to a cooled battery line after a decade of hard use. Around our industry, many products are built to pass short-term regulatory tests — three months at 120°C, one cycle of salt spray, a quick freeze-thaw round. But our customers push for 8 or 10 years in the field, sometimes crossing humid summers and frigid winters repeatedly. We watched how other tubing hardens, yellows, or leaches plasticizer, gradually losing bite at clamped ends and dripping invisible coolant. Drivers rarely notice until sudden warning lights, or worse, a pack shutdown.
We made durability our top line goal. Our main tubing model won’t go brittle or develop chalky surfaces that crumble when flexed. Our engineers have opened up packs from test fleets after years on the road—seeing our material come out with a glossy, pliant surface and total retention of shape integrity. Under high-pressure abuse, it resists ballooning and shear splitting that quickly disabled unreinforced lines. These real-world results have convinced leading EV brands to standardize our tubing for both new builds and retrofits in warranty repairs.
Thermal management is no longer an issue just for light vehicles. Our tubing gets pressed into service in mining trucks, energy storage systems, grid-level battery packs, and high-speed rail. Every segment brings its own operating extremes—dust, high-voltage surges, surplus vibration, and rapid temperature swings. Off-the-shelf hoses often fail catastrophically in these settings, leading to costly downtime and field replacements. We build our tubing to carry the same reliability from automotive into industrial, knowing that balancing cost and endurance is the crux of customer trust in commercial environments.
We’ve learned that the automotive and energy industries value documentation just as much as physical product — so our production lines have adopted robust batch tracking, color coding, and identification printing. Each reel or segment can be traced from resin lot to final post-cure. This makes life easier for assembly partners and allows clear accountability across the product life cycle, something that many legacy tubing makers ignore until there’s a problem.
The core of our experience is hands-on adaptation. While commodity hoses compete on price, our tubing stands apart with its blend of advanced polymer chemistry and production discipline. Flexibility remains constant even after repeated clog-removal flushes. It ships with molded ends that integrate seamlessly with both O-ring and crimped connectors, keeping failures from improper fitment at bay. Instead of rough-cut surfaces prone to micro-burring, we precision-finish every edge thanks to custom extrusion dies developed with continuous feedback from installers and field techs.
Chemical compatibility isn’t left to chance. We spent years in the lab and in the shop cycling through ethylene glycol, water, industrial freeze point depressants, and a rotating menu of new coolant formulas being tested by battery OEMs. Failure analysis on competitors showed thin-walled commercial hoses falling apart after just weeks in some of these environments. Our tubing resists swelling, remains non-reactive, and limits electrolyte diffusion, keeping sensors and auxiliary systems safe well beyond the warranty span.
Our team listens to people who actually work in vehicle production lines and service bays. Many improvements in our tubing came from direct supplier-assembler chats where a worker pointed out small, overlooked pain points: a sharp edge inside a coupling, a surface that didn’t like high-volume liquid soap blasts, or inconsistent tubing roundness that led to assembly jams. We take every comment seriously, reverse engineering failures onsite and adapting our extrusion and curing recipes promptly.
We always maintain communication with quality teams at major new energy companies. Instead of relying only on published data sheets, we share our long-term field studies and open up our facilities for customer audits. This transparency builds a cycle of shared responsibility uncommon among traditional component suppliers.
Batteries keep getting denser and vehicle lifespans stretch as more durable chemistries roll out, so we see the demands on thermal management tubing rising year over year. Our core focus stays on anticipating these shifting requirements — including higher burst tolerances for fast-charging infrastructure, increased resistance to expanded chemical menus, and compliance with stricter fire and smoke retardancy codes, especially for transit and public use vehicles.
With lightweighting pressure growing, we’re evolving toward even thinner-walled, high-performance composite blends using next-generation resins and fiber matrix systems. Several emerging trends — like integration with smart sensors for leak monitoring, or fusion with heat spreader films — have already pushed us to invest heavily in R&D. These investments ensure our customers never get caught off guard by new regulatory codes or data demands from more sophisticated battery management systems.
Companies at the leading edge of energy transition trust our tubing because we give real answers about its in-field track record. We do not simply report the best numbers from an isolated test batch, but rather stress the product week after week in varied scenarios mimicking urban buses, regional logistics, residential storage, and public transit. By supporting line-by-line quality monitoring and hands-on installation training for new partners, we help guarantee the product’s benefits are transferred exactly as promised from plant to project launch.
People behind the scenes know the difference between lab-tested promise and field-proven durability. That is why we continue to spend as much time in the environments where tubing lives out its life as we do behind the chemistry bench. Those experiences shape every engineering and production decision in our facility, keeping our product a favored choice wherever true reliability counts.
Our new energy thermal management system tubing material evolved through thousands of hours in the lab and in the real world. It’s more than a catalog item; it represents years of technical learning, steady reinvestment, and daily problem-solving. Customers tell us our tubing delivers consistency, reliability, and long working life even as battery packs and cooling loads grow more challenging. We remain committed to improvement, always listening to the industry’s voice and working hard to provide solutions that last far beyond installation. This approach is what sets our product apart in thermal management for the energy systems of today and tomorrow.