1、Comparison of Hydrogenated Petroleum and Resin
The thermal decomposition behavior and kinetics of dicyclopentadiene petroleum resin (DPR) and hydrogenated dicyclopentadiene petroleum resin (HDPR) were extensively explored.
2、Comparison of thermal stability between dicyclopentadiene/hydrogenated
The thermal decomposition behavior and kinetics of dicyclopentadiene petroleum resin (DPR) and hydrogenated dicyclopentadiene petroleum resin (HDPR) were extensively explored.
3、Research Progress on Petroleum Resin Hydrogenation
本文总结了现阶段国内外石油树脂加氢改性的最新进展，对石油树脂进行详细分类，对其加氢工艺、加氢机理、载体特性进行归纳总结，最后对未来石油树脂加氢改性的研究方向进行展望，现阶段石油树脂加氢研究概况如图1所示。 石油树脂是由石脑油裂解制乙烯副产物C5至C9馏分聚合而成的一种热塑性树脂，室温下呈现玻璃态，外观呈浅黄色至深褐色，分子量介于300~3000 Da之间。 C5~C9馏分是由多种不饱和烯烃及芳烃组成的复杂混合物，可检测出的有机化合物达到一百至二百余种，其来源广泛、成本低廉。 根据其化学性能不同，含不饱和键的活性组分多在反应时参与聚合；非活性组分在聚合反应中起溶剂作用，不参与聚合，于反应后蒸馏脱除[ 13, 14]。 石油树脂 …
4、Influence of hydrogenated petroleum resin on structure evolution and
Two polyethylene samples, one (PE-10) blended with 10% hydrogenated petroleum resin (HPR) and one (PE-0) blended without HPR, were used to investigate the structural evolution and deformation behavior during sequential biaxial stretch-ing and the properties of films after stretching.
(PDF) Hydrogenation Process for Producing Light Petroleum Resins as
The hydrogenation of petroleum resins (PRs) and the possibilities of using light hydrogenated PRs as components of hot-melt adhesives and pressure-sensitive adhesives have been surveyed.
Hydrogenated Petroleum Resin: Properties and Applications
Hydrogenated petroleum resin is a type of synthetic resin that is commonly used in various industrial applications. It is a thermoplastic material that is derived from petroleum or natural gas.
Application of Various Hydrogenated Hydrocarbon Resins
Hydrogenated Petroleum Resin (Hydrogenated C5/C9 Resin, Saturated Hydrocarbon Resin):Produced by hydrogenating petroleum resin, converting unsaturated hydrocarbons into saturated ones, enhancing color stability, odor reduction, and weather resistance.
Properties And Applications Of Hydrogenated Petroleum Resin
Hydrogenated petroleum resin is a high-quality, versatile, water-white tackifying resin primarily used in the manufacturing of hot melt adhesives, pressure-sensitive adhesives, and other adhesives. It plays a role in tackification, compatibility, thermal stability, and light stability.
Petroleum Resin
Petroleum resin is term in common use for low molecular weight, about Mw 500–5,000, thermo-plastic hydrocarbon resins derived from cracked petroleum fractions.
Global Hydrogenated Petroleum Resin Market 2026
The global market for hydrogenated petroleum-resin is expanding quickly, but several reasons are limiting this growth, such as the rising cost of raw materials in the petroleum resin industry, which constitutes a danger to the market's expansion.
In today's society, with the rapid development of industry and growing energy demands, various chemical products play a pivotal role in industrial production. Hydrogenated petroleum and resin, as two essential synthetic materials, are widely used in numerous fields. their differences and relative advantages have always been a focus of attention in the industry. This article compares hydrogenated petroleum and resin from multiple perspectives to provide readers with a comprehensive and objective view.
I. Chemical Composition and Structural Differences
Hydrogenated petroleum is a product derived from the petroleum refining process, during which hydrogenation agents are added to convert unsaturated hydrocarbons into saturated hydrocarbons. Its primary characteristics include a high content of alkanes and olefins, which are liquid or solid at room temperature. In contrast, resin is a high-molecular-weight compound composed of long carbon chains linked by single bonds. Its molecular structure is relatively complex, featuring significant branching and cross-linking.
II. Performance Characteristics and Application Fields
Hydrogenated petroleum and resin each have distinct advantages. Due to its saturated chemical structure, hydrogenated petroleum exhibits excellent stability and corrosion resistance, making it suitable for manufacturing lubricants, greases, and other industrial products. It also has a high melting and boiling point, maintaining performance under high-temperature conditions. Resin, on the other hand, leverages its unique molecular structure to deliver superior mechanical properties, electrical insulation, and chemical resistance. It is commonly used in coatings, adhesives, composites, and other fields.
III. Environmental Impact and Sustainable Development
Both hydrogenated petroleum and resin face environmental challenges. The production of hydrogenated petroleum may generate harmful substances such as hydrogen sulfide and benzene, posing risks to the environment and human health. Resin production, meanwhile, requires significant energy consumption and results in materials that are difficult to degrade, leading to long-term environmental impacts. When selecting these products, their environmental effects and potential for sustainable development must be carefully considered.
IV. Economic Costs and Market Prospects
From an economic perspective, hydrogenated petroleum and resin differ significantly in cost. Hydrogenated petroleum has lower production costs and stable pricing, making it competitive in low-end markets. Resin, while more expensive, enjoys robust demand, particularly in high-end markets and specialized applications. Decisions should balance costs with market potential.
V. Future Development Trends and Technological Innovation
Looking ahead, technological innovation will drive the evolution of both hydrogenated petroleum and resin. Advances in materials and processes may enhance the performance of hydrogenated petroleum, expanding its applications. Resin, as a high-performance material, is poised to grow in sectors like new energy, aerospace, and biomedicine. Additionally, research into eco-friendly resins will be a key trend to meet rising demand for green and sustainable products.
Hydrogenated petroleum and resin each have strengths and weaknesses, serving distinct roles in industrial production. When choosing between them, specific application scenarios, performance requirements, and environmental factors must be weighed. Only through thoughtful decision-making can resources be utilized efficiently and sustainability goals achieved.
