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C9 Petroleum Resin Agglomeration

Deep resin  2026-04-09 11:14:35   14  2 Like

C9 Petroleum Resin Agglomeration

1、C9石油树脂_百度百科

C9石油树脂是以裂解制乙烯装置的副产物C9馏分为主要原料,在催化剂存在下聚合,或将其与醛类、 芳烃、萜烯类化合物进行共聚合而制得的热塑性树脂。 它的分子质量一般小于 2 000,软化点小于 150 ℃,呈热塑性粘稠液体或固体。

2、C9 Petroleum Resin Hydrogenation over a PEG1000

A PEG1000-modified nickel-based catalyst (Ni-PEG1000/FC3R) supported on an activated fluid catalytic cracking catalyst residue (FC3R) was synthesized and applied to C9 petroleum resin (C9PR) hydrog...

C9 Petroleum Resin Hydrogenation over a PEG1000

3、Rheological properties of C9 petroleum resin solutions

Abstract This paper investigates the rheological properties of C9 petroleum resin solutions, synthesized through different oligomerization methods.

4、C9 PETROLEUM (HYDROCARBON) RESIN

C9 Petroleum (Hydrocarbon) Resin is a low molecular weight thermoplastic aromatic resin produced from petroleum derived C9 fraction through thermal-polymerization technique.

Petroleum Resin

Thus, such aromatic resins are produced from C9 resin oil (including C8, and C10) that contains various monomers as illustrated in Fig. 3. Here, vinyl groups are basically reacted in order to produce aromatic resins as shown in Fig. 4.

C9 Petroleum Resin_化工百科

C9 Petroleum Resin - 简介 石油树脂是一种由石油中提取的天然或合成树脂。 它具有以下性质: 它在常温下通常是不溶于水的,但可溶于多种有机溶剂,并具有良好的粘附性。 化学性质:石油树脂是非极性物质,具有较好的耐化学性和耐氧化性。

C9 Petroleum Resin

C9 thermal-polymerization hydrocarbon resin is widely used in anti-corrosive coating, alkyd-based enamel, aluminium paint, varnish, marine paint, offset ink, newspaper ink and rubber compounding.

C9 Petroleum Resin Hydrogenation over a PEG1000

A PEG1000-modified nickel-based catalyst (Ni-PEG1000/FC3R) supported on an activated fluid catalytic cracking catalyst residue (FC3R) was synthesized and applied to C9 petroleum resin (C9PR) hydrogenation.

C9 Petroleum Resin In Various Industries

Petroleum resin refers to a thermoplastic resin made from the by-products C5 and C9 fractions of petroleum cracking through pretreatment, polymerization, distillation and other processes.

New advances in catalysts for C9 petroleum resin hydrogenation

The research progress in the efficiency supported nickel or/and palladium catalysts for C9 petroleum resin hydrogenation was illustrated and reviewed, further development was discussed. Content from this work may be used under the terms of the Creative Commons Attribution 3.0 licence.

In the petrochemical industry, petroleum resin is one of the indispensable basic materials. It is widely used in coatings, adhesives, insulating materials, and other fields, where its performance directly impacts the quality and functionality of downstream products. during practical applications, C9 petroleum resin often encounters agglomeration issues, which not only affect its usability but may also pose threats to production safety and environmental sustainability. This article explores the causes of C9 petroleum resin agglomeration and proposes solutions.

I. Overview of Agglomeration Phenomenon

Agglomeration refers to the phenomenon where petroleum resin aggregates into solid blocks under certain conditions. This typically occurs during storage, transportation, or usage. Agglomeration makes the resin difficult to disperse and increases the risk of safety incidents such as fires or explosions. Additionally, it impairs product quality and reduces production efficiency. Addressing agglomeration is therefore critical to ensuring the normal production and use of petroleum resin.

II. Analysis of Agglomeration Causes

  1. Temperature Fluctuations: Petroleum resin is a thermosensitive material, meaning its viscosity changes with temperature. Higher temperatures improve fluidity and dispersion, while lower temperatures increase viscosity, promoting aggregation. Temperature instability is a key factor in agglomeration.

  2. Humidity and Air Exposure: Oxidative reactions between resin, moisture, and oxygen generate oil-insoluble precipitates, leading to agglomeration. High humidity can also cause resin to absorb moisture and swell, exacerbating the issue.

  3. Improper Storage Conditions: Poorly sealed containers, oily container walls, or inadequate ventilation can expose resin to air, triggering agglomeration. Storage orientation and environmental factors also influence resin behavior.

  4. Misuse of Additives: Additives intended to enhance resin performance may instead cause agglomeration if overused or incompatible with other components. Improper dosing sequences or timing can also contribute to the problem.

III. Solutions to Agglomeration

  1. Optimize Storage Conditions: Use airtight containers, minimize air contact, and improve ventilation to reduce humidity effects.

  2. Control Temperature and Humidity: Maintain stable temperature and humidity during storage and usage. Dehumidifying equipment can mitigate high-humidity risks.

  3. Rational Additive Usage: Select additives based on resin characteristics, avoid excess dosage, and ensure compatibility. Properly sequence and time additive introduction.

  4. Enhance Detection and Monitoring: Conduct regular quality checks, address agglomeration promptly, and improve production processes or raw material quality to prevent recurrence.

IV. Preventive Measures

  1. Strengthen Raw Material Quality Control: Ensure raw material purity and stability, with rigorous screening and testing for critical components.

  2. Optimize Production Processes: Refine reaction parameters (e.g., temperature, time) to enhance resin stability and fluidity.

  3. Establish Storage and Usage Protocols: Develop clear guidelines and supervise adherence to prevent mishandling.

  4. Implement Comprehensive Quality Management: Monitor the entire lifecycle of petroleum resin production, storage, and usage. Use data analysis and feedback mechanisms to proactively resolve agglomeration issues.

C9 petroleum resin agglomeration is a multifaceted issue requiring coordinated efforts. By controlling raw materials, optimizing production, standardizing storage, and enforcing quality management, agglomeration risks can be significantly reduced. This ensures resin quality, production efficiency, and sustainable development in the petrochemical industry.

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