1、Preparation and properties of vinyltriethoxysilane

In this paper, aqueous acrylate resins were successfully prepared using a pre-emulsification process and semi-continuous emulsion polymerization.

2、Development of waterborne epoxy

This work aims to develop a waterborne epoxy coating incorporated with modified natural rubber (NR) latex for improved performance.

3、Advances in Waterborne Acrylic Resins: Synthesis Principle

In order to be better used in various fields, modification of waterborne acrylic resin has attracted much attention. In this paper, we introduce the method to synthesize waterborne acrylic resins, the composition of the resin, and basic properties of each monomer.

4、Core

This work synthesized modified waterborne acrylic resin with core-shell structure through grafting modification, and prepared high-performance modified surface repair materials. The adhesion level of the modified surface repair coating reaches level 1, with a friction coefficient of 0.7.

5、Preparation of excellent

Water-borne alkyd/acrylic hybrid resins with varied maleic anhydride (MA) content were synthesized from the reaction between alkyd intermediate (AK) and maleic anhydride modified acrylic prepolymer (AC) followed by neutralization of carboxyl groups with triethylamine.

Fluorine‐phosphate copolymerization waterborne acrylic resin coating

Abstract The modified waterborne acrylic resin was synthesized successfully by emulsion polymerization with octafluoropentyl methacrylate and phosphate functional monomer as monomers, showing an improved anti-corrosion performance of the resin coating.

Research on the Performance of Modified Nanocrystalline Cellulose

This study addresses the critical challenges of long-term protection and mechanical stability in waterborne epoxy resin (WEP) coatings by developing composite systems reinforced with modified nanocrystalline cellulose (NCC).

Preparation and Properties of Waterborne Acrylic

In this work, a type of waterborne acrylic-modified epoxy phosphate resin was synthesized by an “A-B-C” three-step method, involving three pathways: esterification, polymerization, and neutralization.

Development of waterborne epoxy

Water-based coating has gained much attention globally due to environmental issues. This work aims to develop a waterborne epoxy coating incorporated with modified natural rubber (NR) latex for improved performance. For this purpose, the NR latex was modified into three types of low molecular weight epoxidized natural rubber (LENR) latex.

Advances in water

By analyzing the effect of substances such as fluorine and silicon on the water-resistance of waterborne acrylic resin, it is pretty clear that the principle of its modification of...

With the global rise in environmental awareness, waterborne coatings are increasingly favored across industries due to their low-pollution characteristics and recyclability. Renowned for their excellent eco-friendly properties and ease of application, waterborne coatings are gradually becoming the preferred choice in sectors such as construction, automotive, and furniture. practical applications still face a series of challenges, with the selection and application of modified resins being among the most critical.

Modified resins are a core component of waterborne coatings, determining not only the final performance of the coatings but also their适用范围 (application scope) and environmental adaptability. Modified resins in waterborne coatings typically require strong adhesion, water resistance, chemical resistance, alongside good leveling properties and workability.

Firstly, the choice of modified resin has a decisive impact on coating performance. For instance, epoxy resin, a common modified resin, offers excellent chemical stability and mechanical strength. its high cost and irritating odor limit its use in certain applications. In contrast, polyurethane resin is highly valued for its flexibility and wear resistance, but its high volatile organic compound (VOC) content may pose environmental and health risks. selecting modified resins necessitates a comprehensive consideration of performance, cost, environmental impact, and other factors.

Secondly, the molecular structure design of modified resins is crucial. Adjusting the molecular chain structure can effectively enhance the physical and chemical properties of coatings. For example, introducing cross-linking agents or branching agents increases cross-linking density and branching, thereby improving hardness and abrasion resistance. Additionally, tuning the hydrophilicity or hydrophobicity of the resin enables better adaptation to different substrate surfaces, enhancing adhesion and durability.

Furthermore, the preparation process of modified resins directly affects their performance. Advanced synthetic techniques and catalysts enable the production of superior-performing modified resins. For instance, copolymerization or graft reactions can introduce specific functional groups into resin chains, endowing coatings with enhanced antibacterial, anti-mildew, or other specialized properties. Nanotechnology applications can also fabricate nanoscale resin particles, further boosting functionality.

Beyond these factors, compatibility between modified resins and waterborne base materials must be considered. Ensuring coating stability and workability requires good compatibility between modified resins and base materials, preventing phase separation or precipitation through matched molecular structures and functional groups.

Lastly, advancements in green chemistry and bio-based materials offer new opportunities for waterborne coatings. Utilizing renewable resources to produce modified resins reduces environmental burdens and costs. Biocatalytic or enzyme-driven synthesis methods promise more eco-friendly production processes.

selecting and applying modified resins for waterborne coatings is a complex yet vital process. By deeply understanding resin characteristics, rationally designing molecular structures, adopting advanced preparation techniques, and embracing eco-friendly trends, the performance and application range of waterborne coatings can be significantly improved. Looking ahead, with ongoing technological progress and stricter environmental regulations, research and application of modified resins in waterborne coatings will expand into broader horizons.