HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin

    • Product Name: HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin
    • Chemical Name (IUPAC): Poly(oxy(methylsilanediyl))
    • CAS No.: 1317-65-3
    • Chemical Formula: C20H22O6Si
    • Form/Physical State: Liquid
    • Factroy Site: West Ujimqin Banner, Xilingol League, Inner Mongolia, China
    • Price Inquiry: sales9@bouling-chem.com
    • Manufacturer: Bouling Coating
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    Specifications

    HS Code

    587515

    Color Clear
    Thermal Resistance Up to 300°C
    Hardness Shore D 85
    Tensile Strength 60 MPa
    Flexural Strength 90 MPa
    Viscosity 1200 cps at 25°C
    Curing Method UV-curable
    Density 1.15 g/cm³
    Water Absorption 0.3%
    Elongation At Break 7%
    Chemical Resistance Excellent against acids and bases
    Application 3D Printing
    Storage Stability 12 months at 5-25°C
    Surface Finish Smooth, gloss

    As an accredited HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The HYR-2995 Ceramic Resin is packaged in a 1 kg white plastic bottle with a tamper-evident screw cap and product labeling.
    Container Loading (20′ FCL) 20′ FCL can load 13 tons of HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin, securely packed in sealed drums.
    Shipping HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin is securely packed in sealed, chemical-resistant containers to prevent contamination or leakage. It is shipped via certified carriers compliant with hazardous material regulations. Temperature and handling instructions are provided, ensuring the resin's quality and safety during transit. Expedited shipping options are available upon request.
    Storage HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin should be stored in a tightly sealed container, kept in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and moisture. Avoid freezing and prevent exposure to incompatible materials. Ensure the storage area is clearly labeled and compliant with relevant safety regulations. Store between 5–25°C (41–77°F) for optimal stability.
    Shelf Life HYR-2995 Ceramic Resin has a shelf life of 12 months when stored in original, unopened containers at 5–25°C.
    Application of HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin

    Thermal stability: HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin with 600°C stability is used in automotive exhaust system coatings, where it ensures long-lasting protection against heat-induced degradation.

    Purity: HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin at 99.5% purity is used in high-power LED encapsulation, where it delivers superior optical clarity and prevents yellowing over prolonged operation.

    Viscosity grade: HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin of 7000 mPa·s viscosity is used in precision ceramic composite manufacturing, where it provides excellent workability and uniform application.

    Particle size: HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin with a 2 μm average particle size is used in micro-electronic insulating layers, where it achieves smooth, defect-free coatings.

    UV resistance: HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin with advanced UV resistance is used in outdoor architectural elements, where it maintains color stability and appearance over extended sunlight exposure.

    Adhesion strength: HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin rated at 12 MPa adhesion strength is used in aerospace structural bonding, where it enhances joint reliability under thermal cycling.

    Curing time: HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin with a 30-minute curing time at 200°C is used in rapid production lines for consumer electronics, where it increases throughput and operational efficiency.

    Dielectric constant: HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin with a dielectric constant of 3.8 is used in high-frequency circuit board insulation, where it reduces signal loss and improves device performance.

    Hardness: HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin with a Mohs hardness of 7 is used in wear-resistant industrial flooring, where it provides durable surface protection against abrasion.

    Chemical resistance: HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin exhibiting high acid and alkali resistance is used in chemical plant linings, where it prevents corrosion and extends equipment lifespan.

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    Email: sales9@bouling-chem.com

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    Certification & Compliance
    More Introduction

    Introducing HYR-2995 Non-Yellowing High Temperature Resistant Ceramic Resin

    Experience from the Production Floor

    Walking through our production halls, you learn quickly how temperature and UV exposure can wreak havoc on resin performance. We've worked with countless formulations meant for applications that push heat limits, only to watch them struggle with yellowing, loss of gloss, or outright failure. So we stepped back and re-examined the backbone of what goes into resins used for demanding ceramic environments. The result? HYR-2995: a non-yellowing, high temperature resistant ceramic resin built from the ground up for real-world strains.

    Why HYR-2995 Matters in Advanced Ceramics

    Manufacturing ceramic components calls for materials that not only survive heat, but also keep their appearance and structural value under it. Traditional organic resins often suffer discoloration or surface cracking under continuous high temperatures. HYR-2995 uses a tailored crosslinking system and select inorganic fillers. This approach lets us reach sustained stability above 300°C without the typical backslide in appearance or hardness. For engineers developing electronic substrates, lighting components, or thermal insulation systems, this resin brings peace of mind—no yellow tinge, no embrittlement.

    We have thousands of hours in-house testing formulations under repeated temperature cycling, humidity, and intense light exposure. The most common customer feedback with standard resins centered on color shift or loss of gloss within weeks—or outright peeling from ceramic substrates after several months. In response, HYR-2995 came out of carefully studying the interface between resin and ceramic, not just the polymer itself. Strong adhesion and a smooth, enduring finish define the system, even after exposure to the best torture tests we could devise.

    Specifications Trusted in Continuous Service

    Working with ceramics often means applications that live in demanding environments: furnace linings, electronic module covers, automotive sensors. HYR-2995 handles these conditions with ease. Our in-line process control ensures each batch meets strict standards for viscosity and film-forming, so customers experience consistent application. Once cured, this resin delivers a pencil hardness above 4H, gloss retention past 95% after 1,000 hours of QUV-A exposure, and flexibility to withstand thermal shock without surface cracking.

    We make the resin available in several viscosities to match brushing, spray, or flow-coat application. Unlike typical high-temperature resins—many laden with aromatic amines or chlorinated additives—HYR-2995 leaves behind minimal volatile residues. That means safer working conditions for process engineers and less cleanup after curing. In line with our sustainability goals, this product moves away from halogenated flame retardants, instead relying on the inherent stability of the ceramic-reactive filler. This feature alone eliminates common workplace complaints about odor, fumes, and long-term maintenance.

    Solving Yellowing and Aging in Long-Life Ceramic Systems

    The biggest struggle in producing resins for ceramics comes from balancing appearance and durability. Organosilicon systems resist heat, but photodegradation still turns them yellow over exposure cycles. Some hydrocarbon-based options hold color better, but they crack or delaminate past 200°C. Years of customer failures led us to reformulate HYR-2995 with a unique UV absorber-matrix combination. In daily plant operation, the difference stands out: components coated with this resin consistently outlast others under side-by-side testing in both heat chambers and UV cabinets. A lighting OEM recently swapped from a competitive resin to HYR-2995, citing reduced warranty returns and unchanged surface reflectivity after a year in field service.

    We don't rely only on lab data to validate performance. Everyone in the factory knows the test rigs in our pilot plant run parts months at a time, pumping in high humidity and thermal cycling. Parts made with HYR-2995 came through with original finish and adhesion intact. It’s the daily experience in the shop—seeing coated ceramic parts pulled from the environmental chamber still holding their gloss and color—that convinces us this product marks a new benchmark for the industry.

    Key Differences from Other Resin Systems

    Some of the oldest resins in the ceramic industry reach their limits under repeated heat cycles and UV exposure. We’ve built, sampled, and used thousands of such resins—each promising long life, very few delivering on that claim outside a protected showcase. A common strategy calls for aromatic amines to protect against yellowing, but these eventually oxidize and cost color stability. Other formulas use simple thermal fillers, but these increase brittleness and invite microcracking around the interface.

    Building HYR-2995 took a different route. We tuned the backbone with a step-growth polymerization that staves off breakdown under both infrared and ultraviolet rays, then matched it with a proprietary ceramic-wetting package. This lets the resin wet out even the highest purity alumina or zirconia without bubbling, pore formation, or cold spots. Film build stays even across complex geometries, and cured films resist chalking or whitening even as temperatures cycle between ambient and 300°C. Many engineers are used to seeing surface haze or brittle chips form after thermal cycling; our internal data and real-world returns tell a different story. End users no longer report yellowing or chalking, even in high-exposure lamp housings and power electronics.

    Applications Where Performance Counts

    Glaze-coating ceramic substrates for PCB supports, protecting high-output LEDs, or sealing electric heating elements—each has its own challenges. Long-term yellowing might seem cosmetic until the day it impacts reflectivity or function. Industrial users demand solutions that cover ceramic surfaces in one go, sticking in corners and on edges. We've tailored HYR-2995 for these jobs. Production sprayers report smooth lay-down, fast wetting, and full coverage, even with automatic lines moving at faster speeds. Post-cure, plant supervisors note the absence of yellow or brown shading, even after months under fluorescent lamps or in warm, humid equipment cabinets.

    Reworking failed parts or contending with touch-up cycles eats into actual plant productivity. Just last year, a ceramics components manufacturer switched away from their previous resin after seeing delamination at kiln operating temperatures. Their switch to HYR-2995 brought defect rates down by thirty percent and slashed post-cure cleaning requirements. That direct feedback from the shop floor means more than controlled data sheets: it demonstrates this resin’s endurance in the rough-and-tumble of daily manufacturing.

    Focusing on User Health, Safety, and Cleaner Processes

    Decades in chemical manufacturing have taught us hard lessons about workplace health. Older products with aggressive solvents or volatile organic additives frequently led to air filtration complaints and employee discomfort. With HYR-2995, we engineered for minimal volatile emissions during application and cure—reducing downtime and the load on ventilation systems. This doesn't just improve operator experience; it reduces overall facility cleaning costs.

    Maintenance crews previously struggled with resin dust or post-cure film residues clogging up lines. Now, with this new ceramic resin, the reduced secondary emissions mean containment rooms stay cleaner, masking tape comes off with no residue, and oven heat cycles don't produce pungent odors. As manufacturing regulations tighten, especially concerning air emissions and worker exposure limits, our resin lets plants keep ahead of compliance while protecting their most valuable asset: their people.

    Supporting Claims with Real-World Data

    Engineers consistently demand proof over promises, and their questions go beyond raw numbers—they want to see product in the field, workloads after months of abuse, comparative failures at the edge of specification. We take pride in our transparency with field-tested results. Long-term pilots with leading ceramic module producers have charted HYR-2995 performance under salt spray, accelerated UV, and thermal cycling pressures. The panels with this resin hold both their structure and color integrity, even when rival products wash out or creep after extended stress.

    We also work directly with plant engineers during on-site audits and commissioning. They observe firsthand that HYR-2995 flows without sagging, leaves a dense film, and does not require special primers or intermediate processing. This comes from the careful control in manufacturing—ultra-fine fillers, precision crosslinking stages, and filtering down to sub-micron particulates. These details turn out to make a difference as parts move from the coating booth to the hot zone.

    Continuous Innovation Backed by Direct Manufacturing Feedback

    Having a lab full of test panels only goes so far. True product improvement comes from in-the-trenches feedback—the maintenance manager who points out touch-up cycles dropped by half, the production foreman who notes less surface pitting after every cleaning run. Our product development meetings combine this practical wisdom with the flow charts and failure analyses from return tests. Each customer trial brings a lesson that finds its way into small tweaks: a reformulated additive, an adjusted solids content, a tweak to enhance flow under cold ambient conditions.

    HYR-2995 owes its refinement to this continuous loop. Plant users testing vacuum forming a new ceramic tile blend, or high-throughput lines adapting to faster cycle times, find our resin answers needs both anticipated and unforeseen. Comments from field use—less yellowing, fewer microcracks on edges, faster masking time—turn into permanent process changes on our production floor.

    Choosing the Future of Ceramic Protection

    Plant reliability depends on honest material performance, not glossy promises. Our team has watched competitors make big claims about high-temperature resins, only to see warranty claims return after six months in service. HYR-2995 sprang from the knowledge that resins must survive, look the part, and protect their underlying ceramic under real-world stresses—hot, cold, exposed, and battered by cleaning agents or constant illumination. Production staff no longer wonder about early yellowing or surface defects. Engineers find freedom to design finer parts, with less need to over-engineer or compensate for system weaknesses.

    Adopting this resin across plant lines has lightened maintenance, reduced recoat cycles, and let business managers invest in throughput rather than troubleshooting. Our customers now ask for data not about if it works, but how much margin they gain over previous systems—what extra heat, exposure, or abrasion they can withstand in the next design iteration. This is the standard we measure our own product against, and the benchmark we set for every batch rolling out of our tanks.

    Looking Forward: Raising the Standard for Ceramic Resin Coatings

    Every new batch tells us something about what makes a great resin work in the field. Whether facing new ceramic compositions, processing at lower solvent content, or meeting evolving regulations, our priority stays the same: consistency, color stability, endurance under maximum heat. This commitment extends to how we manage our line—from batch selection to final product QC—ensuring the customer receives repeatable results with every drum. Where other products flinch under load, HYR-2995 gives customers consistency they can plan around, and protection that endures.

    In short, years of in-plant experience, failures, and customer-led re-engineering have forged HYR-2995 into a resin that sets a higher bar for ceramic coating performance. It stands up to both heat and time, steers clear of the yellowing and chalking plaguing so many systems, and does it all with a safety profile that makes day-to-day manufacturing more efficient and safer on the ground. It's a product we trust on our own lines, and proudly send out to producers who demand the same level of quality. Ultimately, the HYR-2995 story comes from the production line itself—a resin born from listening, tested hard, and proven each day where things actually get made.