1、辛基酚醛增粘树脂_百度百科

辛基酚醛增粘树脂（Octyl-phenolic tackifying resin），中文别称203增粘树脂、特辛基苯酚甲醛树脂，化学式C15H24O2，CAS编号26678-93-3，是一种浅黄色或浅褐色粒状物质，沸点282.3℃，闪点148.3℃。

2、改性203树脂在半钢子午线轮胎胎侧胶中的应用

结果表明,在半钢子午线轮胎胎侧胶中使用改性203树脂等量替代R7510H树脂,胶料的焦烧时间略延长,t90略缩短,表面初始粘性和粘性保持率均有所提高,硫化胶60℃时的损耗因子明显减小,压缩疲劳温升和滚动阻力降低,其他物理性能相差不大。

3、203树脂_化工百科

203树脂 - 简介 辛基酚醛增粘树脂是一种聚合物材料，具有以下性质： 增粘性：辛基酚醛增粘树脂具有较高的粘度和黏度，能够有效增加涂料、胶水和胶粘剂等材料的粘附力和附着性。

4、树脂203

ChemicalBook 为您提供树脂203的化学性质，熔点，沸点，密度，分子式，分子量，物理性质，毒性，结构式，海关编码等信息，同时您还可以浏览树脂203产品的价格，供应商，贸易商，生产企业和生产厂家，最后树脂203的中文，英文，用途 CAS cas number cas no可能也是您需要的。

Jiangsu Guoli Chemical Technology Co., Ltd.

Rubber tackifier GLR-203, abbreviated as 203 resin, is a tertiary octyl phenolic resin, equivalent to SP-1068 and ST-137X from the United States. This product is a thickening agent for natural rubber and various synthetic rubber, especially for styrene butadiene, nitrile, and chloroprene rubber.

LEXANTM 203R resin

LEXAN 203R resin is a high viscosity multi purpose polycarbonate with UV stabilization package. It also contains a release agent to ensure easy processing. This grade is UL94-V2 rated with multiple color options. (H 358/30) (1000 Cycles, 1000 g, CS-17 转轮) 本页面信息资料来自厂商,文档提供者不承担任何法律责任,强烈建议在最终选择材料前, 就数据值与材料供应商进行验证。版权归原作者所有, 如有侵权请立即与我们联系。 1. 2. 3. 4. 5.

LEXAN Resin 203

Offers impact resistance, outstanding dimensional and good clarity. Processed by injection molding and suitable for thicker sections without sinks. Used for outdoor and lighting applications.

LEXAN PC 203 Resin物性表,UL,SGS认证,报价格

东莞华宸塑胶原料专业供应LEXAN PC 203 Resin,随货提供LEXAN PC 203 Resin物性表,UL,SGS认证,报价格

DOW™ LDPE 203M Low Density Polyethylene Resin

This resin is a copolymer produced via INSITE™ Technology from Dow. It offers a unique combination of low seal initiation, moderate stiffness and low blocking for excellent performance on automated packaging equipment.

Resin 203_MEYORS

Chemical Name：Para-tert-octylphenol formaldehyde resin CAS NO.:26678-93-3 Anchoring Resin 203 is a thermoplastic reactive p-alkyl-phenol formaldehyde resin. It is soluble in toluene chloroform, butanone and ect. It has many excellent properties. It can be used as anchoring agent. Besides, it also used as plasticiser and softener.

In the vast realm of modern industry, materials science plays a pivotal role. Among various innovative materials, modified 203 resin has become a focal point for researchers and engineers due to its unique properties and broad application prospects. This paper aims to thoroughly explore the multifaceted aspects of modified 203 resin, unveiling its distinctive value and potential applications across diverse fields.

Modified 203 Resin: A High-Performance Engineering Plastic Modified 203 resin, as a high-performance engineering plastic, is renowned for its excellent mechanical properties, thermal stability, and chemical resistance. Its primary component is polyamide (PA), a highly crystalline polymer characterized by robust mechanical strength, wear resistance, and dimensional stability. inherent limitations such as low heat resistance and hygroscopicity restrict its use under extreme conditions. Consequently, modifying the resin to expand its application range and enhance its performance has emerged as a critical research direction.

Modification Methods for Improved Performance The modification of 203 resin encompasses various approaches, including filling modification, blending modification, reinforcement modification, and grafting modification, each tailored to specific needs:

1. Filling Modification: Adding fillers like glass fibers, carbon fibers, or mineral powders improves mechanical strength, heat resistance, and chemical corrosion resistance. This cost-effective method suits scenarios with moderate performance requirements.

2. Blending Modification: Combining 203 resin with other high-performance resins or fillers enhances overall mechanical properties, heat resistance, and chemical stability. While significantly boosting performance, this approach involves complex processes and higher costs.

3. Reinforcement Modification: Utilizing physical or chemical methods (e.g., fiber reinforcement, nanoparticle integration, or radiation crosslinking) markedly improves mechanical strength, heat resistance, and chemical resistance. This requires advanced techniques and higher investment.

4. Grafting Modification: Introducing new functional groups or polymer chains into the resin’s molecular structure enhances mechanical properties, heat resistance, and chemical stability. Though effective, this method is operationally complex and costly.

Other supplementary methods, such as surface treatment or phase separation, can also be employed based on specific application demands.

Wide-Ranging Applications Across Industries Modified 203 resin thrives in numerous sectors:

• Automotive: Used in engine parts and transmission components, leveraging its high strength, heat resistance, and low friction to enhance vehicle performance and longevity.
• Electronics: Employed in circuit boards, connectors, and casings, thanks to its superior electrical insulation and mechanical strength, which support miniaturization and reliability in electronics.
• Aerospace: Applied in aircraft structural parts and engine components, capitalizing on its high strength-to-weight ratio, heat resistance, and durability under extreme conditions.

Additionally, its versatility extends to medical devices, sports equipment, and construction materials, where its exceptional properties have garnered widespread market adoption.

A Material with Vast Potential** As a high-performance engineering plastic, modified 203 resin continues to play a vital role across industries due to its mechanical, thermal, and chemical advantages. Through strategic modifications, its capabilities can be further optimized to meet niche demands. With advancements in technology and materials innovation, modified 203 resin is poised to unlock even broader applications and achieve greater performance milestones in the future.