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HS Code |
231166 |
| Productname | Silicone Rubber CF-1313 |
| Color | Translucent |
| Appearance | Solid |
| Hardness | 60 Shore A |
| Density | 1.12 g/cm³ |
| Elongationatbreak | 400% |
| Tensilestrength | 8.5 MPa |
| Compressionset | 18% (22h, 175°C) |
| Servicetemperaturerange | -60°C to +230°C |
| Thermalconductivity | 0.21 W/m·K |
| Volumeresistivity | 1 × 10^15 Ω·cm |
As an accredited Silicone Rubber CF-1313 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Silicone Rubber CF-1313 is packaged in a sturdy 20 kg white plastic pail with a tightly sealed lid and clear labeling. |
| Shipping | Shipping for Silicone Rubber CF-1313 is handled in sealed, moisture-proof containers to preserve product integrity. Packages are labeled per chemical safety standards and shipped via ground or air transport, depending on destination. Ensure storage in a cool, dry place during transit. Compliance with local and international transport regulations is maintained. |
| Storage | Silicone Rubber CF-1313 should be stored in a cool, dry, and well-ventilated area away from direct sunlight, moisture, and incompatible substances. Keep it in its original, tightly sealed container at temperatures between 5°C and 30°C. Avoid exposure to extreme heat or cold to preserve material integrity. Always follow the manufacturer’s storage guidelines and local regulations for safe chemical storage. |
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Heat Stability: Silicone Rubber CF-1313 with a stability temperature of 250°C is used in automotive gasketing, where it ensures prolonged sealing performance under thermal cycling. Tear Strength: Silicone Rubber CF-1313 with a tear strength of 30 kN/m is used in protective keypads, where it delivers reliable resistance against mechanical stress. Elongation: Silicone Rubber CF-1313 with an elongation at break of 450% is used in flexible connectors, where it enhances durability and stretchability. Hardness: Silicone Rubber CF-1313 with a Shore A hardness of 50 is used in soft-touch electrical insulation, where it provides optimal grip and shock absorption. Purity: Silicone Rubber CF-1313 with a purity greater than 99% is used in medical device molding, where it reduces the risk of contamination. Electrical Resistivity: Silicone Rubber CF-1313 with a volume resistivity of 1x10^15 Ω·cm is used in electronic encapsulation, where it maximizes dielectric protection for sensitive components. Compression Set: Silicone Rubber CF-1313 with a compression set of 14% at 150°C is used in food processing seals, where it maintains shape retention over extended service periods. Viscosity: Silicone Rubber CF-1313 with a viscosity grade of 600,000 mPa·s is used in injection molding applications, where it enables precise flow and material distribution. Transparency: Silicone Rubber CF-1313 with high light transmittance is used in LED lens production, where it improves light output and optical clarity. Volatility: Silicone Rubber CF-1313 with low volatile content (<0.5%) is used in pharmaceutical packaging, where it minimizes risk of leachables and ensures product stability. |
Competitive Silicone Rubber CF-1313 prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
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Tel: +8615371019725
Email: admin@sinochem-nanjing.com
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At our plant, the conversations around the lines rarely drift far from one topic: material quality. Customers ride on the outputs that come from our reactors, kneaders, tanks, and curing ovens. The margin for error shrinks every time the world demands flexibility, lifespan, and efficiency, whether for medical tubing, power insulation, or industrial sealing. Silicone Rubber CF-1313 came to life because we saw the frustration in production managers’ eyes when traditional elastomers blocked throughput or showed early breakdown. We’ve lived the headaches of poor tear strength, or shut down a calendar line because the sheet kept sticking. CF-1313 grew out of our collective drive to reduce these pain points and deliver a compound that truly respects your time and resources.
Every lot of CF-1313 silicone rubber starts with careful base selection. We don’t chase lowest cost per kilo; we monitor incoming siloxane chains and fillers by hands-on batch checks and site-controlled analytical chemistry. In our experience, it’s the particle size distribution and the crosslinking system purity that shift day-to-day results, and we’d rather walk a few extra feet during quality inspection than handle the shame of a failed batch in the field. We balance vinyl content to match our crosslinking approach. You won’t find unwanted volatiles drifting out of the compound into downstream equipment, and high filler loading won’t give you a dense but brittle slab.
CF-1313 comes off the line ready for high temperature vulcanization (HTV). We optimize the curing window so processors can adjust dwell time and pressure without wrestling with scorching or inconsistent mold fill. We’ve pulled thousand-meter wire profiles without losing dimensional control. Decades of compounding have taught us that stray ions and poorly dispersed filler can show up as sticky residue or short extruder runs. We’ve bled over enough hoses to appreciate stable, clean-running mixes; our plant crew commits to your uptime because we know what it feels like to be let down by erratic product performance.
CF-1313 isn’t magic, but it is the sum of practical, stubborn engineering decisions. In physical properties, we see consistently high resilience after repeated flexing—one of the biggest problems we hear about in assembly-line profiles that face snap-back or repeated stress. The material keeps compression set low, so gaskets hold their seal after months of thermal cycling. We prioritize clarity of melt path and stability of mechanical properties over a wide temperature range, because a silicone that’s only heat-resistant on paper doesn’t serve the rolling mills or injection presses actually using it.
We didn’t focus just on tensile rating for the lab; we check how the material handles cutting, rolling, and extruding, because that’s where waste creeps into production schedules. Our operators have processed CF-1313 in open mills and closed kneaders all week without fighting with dust-off or caking. Once you’ve thrown out a few bags from a run that went sour, avoiding raw material loss starts to matter even more.
We’ve worked along with customers who needed transparent compounds, pigmented lines, or flame-retardant variants for specialized applications. These aren’t just SKU expansions. They’re pushes from engineers asking for silicone that won’t leach plasticizer into medical lines, or won’t yellow on exposure to UV the way PVC does. With CF-1313, we batch to a specification, not a theoretical maximum—your targets for durometer, viscosity, and elongation drive the conversation. Resin producers don’t always want to talk about resilience after gamma sterilization. We ask questions about it, because failing in real-world medical device validation wastes months of effort on both sides.
One of the big differences with CF-1313 is the transparency we offer about what it can and can’t do. We never try to hide behind broad claims. If your system needs a custom cure profile, or a rheology window that matches a legacy extruder, we open the books. Too often, the distance between producers and users loses important performance details. Our floor staff, production engineers, and technical liaisons bridge that gap every day, running test lots, sending out line samples, and gathering real data directly from customer toolrooms. It’s not just about sample approvals—we want every meter, sheet, or molded seal to deliver constant, straightforward processing and in-place properties.
Every batch of CF-1313 gets feedback loops straight from the field—extruder operators, press technicians, and QA auditors who live with the grime and rattle of full-scale lines. We worked through too many sleepless nights trying to set a cure that avoids both surface tack and incomplete crosslinking. We built the peroxide and platinum-cure options in CF-1313 based on batch recovery data, not market guesses. The result shows up in fewer fouled dies, gentler demolding, and more predictable cycle times.
We’ve tweaked the formulation enough to see where it lets processors run automation with fewer stops. You won’t struggle with the crumbly extrusion profiles that plagued the first generation of high-consistency rubber. We keep a close eye on how compounds cut, splice, and lay up on existing cold-feed lines. Our work on optimizing extruder throughput and dimensional stability comes from watching operators troubleshoot lines at midnight and hearing supervisors vent over too many feet of wasted product. These in-the-field trials push us to refine not just lab test panels, but real-world cure sensitivity and finish.
We see plenty of materials that look good coming off the line, but break down after a few months outdoors, or in a cable tray. Our plant’s root principle: don’t just match numbers in a spec sheet; prove that the product stands up to the weather, solvents, UV, and thermal cycles that users actually throw at it. CF-1313 has gone through abrasion testing, ozone exposure, and longitudinal thermal aging tests. The field reports and returned samples keep us straight—sometimes more than we’d like—about where further tweaking will prevent future failures.
Long-life performance in electrical and architectural sealing has pushed us to measure not just bulk resistance or elongation, but color stability, hardness drift, and the subtle changes in tear resistance after years of dynamic stress. Customers have called us months down the line to report on performance after flood events, or unexpected exposure to moderate acids. We learn from every report, running parallel shelf-life and stress tests in the lab to tune the compound and give users products that won’t leave them chasing leaks or cracking years after installation.
We know from decades of shipping and handling that nothing alarms a shop floor more than uncertainty in material stability or unknown additives. CF-1313 doesn’t spring surprises—the system runs low on extractables, and we avoid the cheap fillers that bring unpredictable outgassing. Our work in compounding for medical and food-contact grades keeps us alert to real contamination risks; we regularly test lots to detect leachables, keeping documentation reproducible and up to date. We track each drum from blending through packaging because we’ve seen too many operations stumble over trace-level contaminants or missing records. That attention isn’t glamorous, but it pays back every time a batch passes customer release and third-party audit.
Every time new regulations or market expectations tighten, we’re quick to answer them with updated validation protocols. We see the test data before material goes into a sensitive build; with traceability all the way to the raw polymers and compounding records, downstream users can audit our entire process chain. More than a few of our partners only learned the value of proper certificates and predictable batch analytics after a close call from a rival supplier. We work to help customers avoid that path.
Silicone chemistry is sometimes seen as resource-intensive, but we focus attention on reducing scrap, controlling emissions, and reclaiming process waste wherever possible. During plant expansion, we invested in closed-loop mixing and fume scavenging, which cut volatile emissions and allowed us to recycle wash-downs into lower-grade utility blends. Reducing the environmental load of CF-1313 meant shifting some tried-and-true process schemes. Hard lessons from regulator intervention and feedback from downstream partners shaped our choices on solvent control, filtration, and process water treatment.
Whenever a batch leaves our gates, we maintain a record of its impact, including energy cost per kilogram, rejection rates, and recyclability data. Our work with local industry groups ties back into community reporting, and we welcome site visits and audits—not because it makes for a good safety sign, but because our reputation depends on seeing CF-1313 as part of a responsible industrial ecosystem. Rather than offering abstract “green” claims, we push to cut down manufacturing waste and document each improvement.
Operators in cable extrusion, gaskets, medical connectors, or automotive assemblies face a market full of choices. Organic rubbers and simple thermoplastics offer lower up-front pricing, but fatigue or chemical resistance often come at a steep cost—just ask the crews who’ve replaced failed seals after ozone attack or heat exposure. Fluorosilicones go toe to toe with standard grades on resistance, but budget constraints often tip the scales back to general-use silicones. Here’s where our own experience counts: after decades of burn tests, compression cycles, and extrusion trials, our plant tunes CF-1313 so it won’t pit against environmental hazards.
Some customers come asking for a barebones HTV silicone. We walk through the day-to-day hits they expect: constant sterilization cycles in hospital gear, baking and cooling in ovens, chemical resistance in lab stoppers, or the flex-and-bend of wearable bands. In those cases, CF-1313 doesn’t need exotic monomers to beat the standard; it succeeds because process engineers get reliability with each shipment. We don’t offer a one-size-fits-all miracle; we work with developmental techs and senior operators to make sure CF-1313 meets real tolerances, not overly optimistic marketing numbers.
Most buyers can spot quickly if a silicone runs better than the competition. Faster fill, fewer fish-eyes in pigmented parts, and fewer defective meters down the production line. We know tricks that save half a day on startup, or let operators clean barrels and tubes faster with less residue. Those details stand out; they save budget and let line crews meet tight quotas without constant troubleshooting.
We work with customers who build devices for fields where “good enough” isn’t a safe bet—implantables, food processing equipment, electronics housings, or high-stress wearables. Our technical teams answer not just to plant supervisors but also to regulatory auditors and design leads, who see failed trials as lost investment. We’ve tuned CF-1313 to meet hard endpoints for biocompatibility, low extractables, and high-clarity applications. The feedback loop runs both ways: every time a designer finds a sticking point in downstream manufacturing, we use that to feed improvements right back into batching and post-curing.
We see growing interest from new energy and next-gen mobility. Seals and insulators in battery assemblies, or exterior weatherization around solar modules, push materials to their limit for temperature extremes and long-term UV resistance. We answer with formulation adjustments and new QA routines, not blanket promises. Before any modified compound gets shipped, it passes through application tests—real, destructive checks, peel and compression cycles, and weather testing until everyone is satisfied that CF-1313 fits. Only then do we offer the upgraded line.
Our relationship with child companies and end users doesn’t finish with shipping documents. We run surveys, field visits, and regular technical review sessions, because no production run goes flawless forever. It's feedback from site operators—how the rubber loads, cuts, and demolds in live processing—that reveals what we should fix, optimize, or develop next. We document these iterations openly, so end users know current lot performance and future plans.
Technical service doesn’t just mean fixing a problem. It’s working through process control with customers, sending out line test samples, running follow-up analysis when equipment or conditions change. We’ve been in the shoes of engineers suddenly needing a new certificate or a rush batch because of an unexpected project award. Our history with CF-1313 involves these emergencies—nights spent pushing through orders, troubleshooting retrofits, and making sure our material saves more time than it ever costs.
No compound line stands still, and neither does CF-1313. We grow with every plant expansion, see new market needs, and continuously adjust blend components. Our R&D group works closely with floor operators and field reps, supporting both blue-sky experiments and everyday process tweaks. We let experience, not guesswork, guide upgrades—if the material doesn’t improve field results, it doesn’t go into general production.
We keep an open ear to the market. Shifts in electric vehicle demand, changing rules for food contact, even the macroeconomic need for longer service life all shape where CF-1313 evolves. Having a full-scale manufacturing background means we don’t guess or hope. We trial, scale up, and document results. We measure our reputation by product runs that speak for themselves, and customer partners who reach for CF-1313 every time the schedule tightens or the spec demands close tolerance.
With every shipment from our plant, we tie the quality of CF-1313 directly back to the experience and personal pride of the hundreds of workers that handle, mix, test, and certify every kilogram. The difference isn’t just in specification—it’s in the daily practice, the commitment to solving real problems, and the long view that only a manufacturer on the actual front lines of production can understand.