|
HS Code |
863166 |
| Chemicalname | CycloOlefin Copolymer |
| Productgrade | TM-1600 |
| Manufacturer | Mitsui Chemicals |
| Density | 1.02 g/cm3 |
| Glasstransitiontemperature | 160°C |
| Meltflowrate | 14 g/10 min (at 260°C/2.16kg) |
| Refractiveindex | 1.53 |
| Transparency | over 91% |
| Waterabsorption | <0.01% |
| Flexuralmodulus | 3100 MPa |
| Tensilestrength | 95 MPa |
| Heatdeflectiontemperature | 159°C (at 0.45 MPa) |
As an accredited CycloOlefin Copolymer TM-1600 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | CycloOlefin Copolymer TM-1600 is packaged in a 25 kg polyethylene-lined kraft paper bag with clear product labeling and batch information. |
| Shipping | CycloOlefin Copolymer TM-1600 is shipped in tightly sealed, chemical-resistant containers to ensure product integrity and prevent contamination. Packages are clearly labeled and protected against moisture, sunlight, and physical damage. Standard shipping involves secure pallets and regulated transport, adhering to safety guidelines for non-hazardous polymers. Temperature controls are maintained if specified. |
| Storage | CycloOlefin Copolymer TM-1600 should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and sources of heat. Store the material in tightly closed original containers to prevent contamination by dust and moisture. Avoid contact with strong acids or oxidizers. Ensure that storage conditions protect the product’s physical and chemical properties for optimal performance. |
| Purity 99.5%: CycloOlefin Copolymer TM-1600 with purity 99.5% is used in pharmaceutical blister packaging, where high chemical resistance ensures product safety and integrity. Molecular weight 180,000 g/mol: CycloOlefin Copolymer TM-1600 with molecular weight 180,000 g/mol is used in optical lens manufacturing, where superior dimensional stability provides consistent optical performance. Glass transition temperature 160°C: CycloOlefin Copolymer TM-1600 with glass transition temperature 160°C is used in medical device housings, where elevated thermal stability allows for effective sterilization. Melt flow index 9 g/10min (230°C): CycloOlefin Copolymer TM-1600 with melt flow index 9 g/10min (230°C) is used in high-precision injection molding, where easy processability enhances production efficiency. Transparency 92%: CycloOlefin Copolymer TM-1600 with 92% transparency is used in diagnostic microfluidic chips, where high optical clarity enables accurate detection and analysis. Water absorption <0.01%: CycloOlefin Copolymer TM-1600 with water absorption less than 0.01% is used in electronic component encapsulation, where moisture barrier properties ensure electrical stability. UV stability grade A: CycloOlefin Copolymer TM-1600 with UV stability grade A is used in display panel covers, where resistance to photodegradation maintains visual properties over time. Tensile strength 65 MPa: CycloOlefin Copolymer TM-1600 with tensile strength 65 MPa is used in precision engineering parts, where high mechanical robustness delivers long-term durability. Thermal expansion coefficient 60 x10^-6/K: CycloOlefin Copolymer TM-1600 with thermal expansion coefficient 60 x10^-6/K is used in sensor housings, where dimensional stability over temperature changes is critical for reliable performance. Refractive index 1.53: CycloOlefin Copolymer TM-1600 with refractive index 1.53 is used in camera lens production, where optimal optical performance enhances imaging quality. |
Competitive CycloOlefin Copolymer TM-1600 prices that fit your budget—flexible terms and customized quotes for every order.
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Standing on our production floor and watching each run of CycloOlefin Copolymer TM-1600 come off the line, the difference from ordinary plastics becomes obvious. Years ago, we spent countless hours listening to engineers and quality specialists tell us about the frustration of optical haze, warping, or chemical break-down in high-performance plastics. That set us on the path of developing TM-1600—a copolymer that steps past the old problems and answers specific calls from industries aiming for clarity, precision, and chemical toughness. Each batch runs clean and tight, not just by our measures but by the feedback from those who mold, extrude, and process it daily. Mistakes get expensive, both for us and for the companies relying on our polymer in medical devices, electrical insulators, and transparent housings.
Years back, polycarbonate and polystyrene were kings of clear plastic, but each brought trade-offs. Polycarbonate’s strength came tied to BPA concerns and yellowing over time. Polystyrene cracked from the wrong solvent or just a sharp drop. We saw gaps for a material that keeps transparency high, absorbs little moisture, and shrugs off constant exposure to chemicals or UV, without leaching any ingredients that regulatory bodies worry about. TM-1600’s backbone—its unique cycloolefin segments—sets it apart by naturally resisting hydrolysis and oxidation. The resin’s clarity stands up even after autoclaving or extended field use, saving headache and waste.
As a manufacturer, we face fewer rejected lots from shifts in ambient humidity; TM-1600 absorbs scarcely any water. That pays off handsomely once downstream processors inject or blow mold it, because less internal moisture means parts with sharper edges, stable optics, and no nasty surprises in dimensional tolerances. Warehouse teams often tell us they appreciate spending less time on climate controls—TM-1600 just sits tight.
Unlike some polyolefin blends that fudge composition to reduce cost, TM-1600 maintains a tight range on both glass transition temperature and molecular weight. We invested in high-purity feedstocks and controlled catalyst systems early on, which gives our product a reliable performance band. Processors notice the difference. Mold deposits drop, cycle times speed up, and maintenance headaches shrink.
If you cut open a part made from TM-1600, the secrets become clear under polarized light. Birefringence, which leads to stress cracking in medical syringes or automotive lenses, hardly shows. We noticed less stress-whitening, an issue that plagued early generations of cycloolefin copolymers and led to embarrassing cracks post-shipment. TM-1600 resists this thanks to its chain mobility and uniform structure. Customers doing microfluidics appreciate smoother channels, less sticking, and easier downstream bonding.
A lot of plastics claim clarity. We see the true value in the hands-on testing. Our engineers batch-test TM-1600 not just in the lab, but in real-world conditions. Medical device prototyping teams have dropped, sterilized, and flexed parts daily for months at a stretch—all to answer if a part stays transparent, shatter-resistant, and biocompatible. TM-1600 keeps its properties after multiple autoclave cycles, resisting the yellowing and embrittlement others show. That performance gives procurement teams and compliance officers one less thing to stress about when preparing regulatory filings.
In electronics, designers want a polymer that won’t slowly turn opaque from exposure to soldering heat, fluxes, or UV from LEDs. TM-1600 was tested in live production, not just in a simulated environment. We watched lenses and covers keep internal LED light loss to a bare minimum and escape the crazing usually triggered by surface cleaners or alcohol wipes. Surface hardness allows TM-1600 parts to resist scratches, reducing the need for coatings that complicate recycling.
Our batches go to microfluidics and chip manufacturing houses, where channel precision and bonding reliability decide yield rates. TM-1600 flows smoothly in hot runner molds and keeps the fine edges needed for reliable droplet transport. Once molded, the resin stands up to solvents required for cleaning or biological agents, without leaching or shedding particulates. Quality control at these sites sent us feedback, time after time, that TM-1600 means fewer clogged channels and cutbacks in time spent on cleaning or rework.
At the other end of the spectrum, some of our clients mold lens arrays and optical discs. With older plastics, even a slightly uneven flow could result in milky patches or prismatic rings. TM-1600 keeps optical path integrity across thousands of injection cycles, which gives disc duplicators and high-precision optics labs the confidence to standardize on one material for extended runs.
What often gets lost in glossy marketing sheets is how the polymer actually feels during production. Every time we scale up a new resin lot, we gather teams from molding, extrusion, and machining lines to give feedback. TM-1600 stands out for its low melt viscosity—parts mold rapidly with sharp detail, even at modest temperatures. That’s a win for energy consumption. With other plastics, you drag along pesky stringing, drool during startup, or have to dial in temperature windows second by second. TM-1600 remains stable across typical process swings, whether you’re ramping up for a day shift or winding down for the night.
Mold technicians like its release profile. Ejector pins stay cleaner, and surface bloom almost disappears, which means fewer interruptions for tool maintenance. The resin adapts easily to both single-cavity prototyping and high-cavity commercial molds. That versatility let our processing partners move from short runs to production grade with far fewer headaches.
Some of our partners run long assemblies, welding dozens of parts together for intricate medical modules or compact sensors. TM-1600 takes ultrasonic and laser welding without burning at the seams or clouding adjacent surfaces. As a manufacturer, we designed it to avoid unwanted outgassing—those little wisps that wreck clear weld lines or create bubbles. After years of following weld strength tests, the numbers regularly exceeded those for older cycloolefin blends and common plastics.
Over the years, regulatory demands have only intensified for plastics—more focus on traceability, extractables, and leachables. TM-1600 always met or exceeded thresholds for food contact and medical grades without major reformulation. We keep records tight across all processing steps. From raw monomer delivery to compounding through pellet output, every lot receives full batch traceability. Regulators have greater peace of mind on critical device approvals because ingredient lists remain consistent, and we support every order with detailed certification files.
Our production team knows firsthand the work behind these assurances. Independent audits don’t just breeze in once a year. Inspectors ask about control over raw materials, temperature logs, supplier records, and even cleaning between runs. TM-1600 gave us a solid foundation to supply not only local clients but global ones, spanning from drug delivery devices in the Americas to diagnostic cassettes in Europe and Asia. Every time a standard changes—like lower migration limits for certain substances—we re-run all the relevant tests and reissue results proactively.
The world doesn’t adjust its schedule for delayed resin lots or surprise shortages. As an established producer, we know how changing a material even slightly ripples through downstream supply chains. TM-1600’s formulation and processes grew out of close conversations with end users. They needed not only clarity and chemical stability, but above all a steady, predictable resin. It took continuous investment in manufacturing systems: multiple backup reactors, strict retention of process parameters, and in-line analytic checks to flag issues before they reached final packaging.
Logistics played just as key a role. Over the years, our shipping team learned that the slightest deviation—an unexpected rail reroute, a spike in humidity, or a customs hold—could affect resin condition. TM-1600’s resistance to water uptake and robust pellet design allow longer storage and greater resilience to environmental swings than many rivals. That directly saves downstream users from costly unplanned downtime or reprocessing. We size and package most lots by direct conversation with each customer, not by guesswork. Those efforts removed a lot of the pain points that would otherwise see manufacturers switching away to more “available” but less reliable compounds.
Environmental goals tighten every year. As direct producers, we feel both the pressure and the responsibility to provide solutions that meet customer needs without abandoning progress on recyclability or responsible sourcing. TM-1600 contains no halogens or heavy metals, and we designed our process to run with lower energy inputs than previous generations. Capturing solvents and off-gas streams for re-use also cuts both cost and waste.
Clients increasingly ask about end-of-life scenarios. TM-1600, with its chemical resistance and purity, performs well in mechanical recycling streams—yielding high-grade reprocessed pellets suitable for many non-medical and some industrial uses. Partners running take-back schemes reported higher recovery rates and less loss from contamination compared to legacy polyolefins and styrenics. On the floor, we segregate scrap streams tightly, and our team leads periodic waste audits to keep the process on track.
Some customers even take TM-1600 offcuts and reprocess them directly on-site, reducing both waste hauls and ordering needs. Our continued research explores how to make depolymerization and chemical recycling more practical, aiming to keep more value in the supply chain. As regulations in Europe and elsewhere raise targets for recycled content, TM-1600 sits well placed for closed-loop systems or blended feedstock.
We’ve seen TM-1600 perform in places that put it to the test every day. One client in diagnostic systems noticed their old polycarbonate trays kept fogging and cracking after repeated cycles in aggressive cleaning solutions. Switching to TM-1600, parts showed no fog or crack even after triple the cycles. We track such feedback with pride, re-testing batches internally and sharing findings directly with teams on the ground.
Another story comes from a producer of precision optical lenses. They faced shrinkage variations batch to batch, leading to tedious mold tweaks and off-spec finished lenses. After partnering with us for a series of TM-1600 trials, their molders reached a sweet spot: cycle stability, consistent dimensions, and fewer cosmetic rejects. Over months, their costs fell, not through a spec sheet promise, but through the combined gains of yield, speed, and predictable feedstock.
Engineers from a consumer electronics plant noted that earlier plastics would yellow or craze after intense in-field use where sweat, light, and cleaning sprays kept attacking covers and light guides. TM-1600 covers held their clarity and resisted surface changes, which slashed warranty returns and kept assembly lines running smooth. Each time these real-world results came in, our team reviewed supplier audits and material tracking to keep the consistency locked down.
Marketing can describe a material up and down, but the substance comes in daily performance. TM-1600 doesn’t just chase after today’s transparency or toughness standards—it outperforms by holding those gains through repetitive stress, fast production, and tight regulatory margins. The lack of BPA, halogens, and other flagged additives means customers rarely need to seek additional compliance proof beyond our supplied documentation.
Compared to commodity cycloolefin copolymers, TM-1600 delivers superior stability and easier processing. No need for exotic mold coatings, extensive drying, or workaround additives. Some grades tolerate laser marking and high print resolution, which simplifies custom batch tracking and component identification. Regular audits of both material properties and supply chain tracking keep each order in tight alignment with the last, from ton-scale purchases to small development runs.
For medical, analytical, or optics production lines, these differences turn into fewer line stoppages, less time lost to material troubleshooting, and higher returns on each run. Less time spent fighting off specification drift leaves room for real innovation. TM-1600 sets a new expectation for reliability and performance among specialty polymers, not by accident, but from direct process improvements, attentive feedback loops, and constant hands-on quality checks.
Our technical teams don’t stop at meeting last year’s requirements. We keep one ear to the ground across every sector that pushes the limits on optical clarity, chemical resistance, or precision molding. As performance standards rise and applications grow more demanding—lab automation, frontier diagnostics, advanced vision systems—we plan future enhancements for TM-1600. These will include grades with tailored flow indices, resistance to new classes of solvents, or improved bonding for next-generation assembly lines.
Along the way, we remain committed to direct and open partnerships with the real-world users of our polymer. Where mainstream products settle for an “average,” we push TM-1600 to set the pace. By working closely with R&D and process leads at our client companies and by keeping our own eyes trained on each production run, we guarantee a cycloolefin copolymer that both stands up today and keeps pace with tomorrow’s challenges. That’s what separates a true manufacturer’s promise from copy on a label.