1、A one

Compared with conventional dry mask-based treatments such as oxygen plasma modification and UV/O modification, the CGPM method can freely adjust the wettability of different regions of the PDMS surface, producing multiple wettability gradients on the PDMS surface.

2、Tunable wettability of phenolic resin coatings

In this research, the influence of wetting agents on the surface wettability was used to gauge the performance and distribution of the surfactant on coatings prepared from PUF and PF resins.

3、Enhancing the bonding strength of PEEK through chemical modification

UV/ozone treatment of PEEK surfaces increased the wettability and significantly improved the shear bond strength of the composite resin blocks.

4、Review of surface engineering through wettability control

We systematically analyze the underlying mechanisms—ranging from chemical functionalization to physical nanostructuring—and their transformative applications in coatings, biomedical devices, electronics, and sustainable technologies.

5、Surface Wettability Tuning of Acrylic Resin Photoresist and Its Aging

In this work, the surface wettability tuning of acrylic resin photoresist by oxygen plasma or ultra-violet/ozone, and its aging performance in different atmospheres, were systematically studied.

‘Rewritable’ and ‘liquid

Here, authors introduced a chemically reactive crystalline network of polymer to develop rewritable and liquid-specific wettability pattern via spatially selective chemical modification.

PDMS surface wettability modification and its applications: A

Given the critical role of PDMS in biomedical applications and the ongoing challenges associated with its hydrophobicity, a comprehensive evaluation of surface modification techniques is essential to enhance its wettability and long-term hydrophilicity.

Surface Wettability Tuning of Acrylic Resin Photoresist and Its Aging

In this work, the surface wettability tuning of acrylic resin photoresist by oxygen plasma or ultra-violet/ozone, and its aging performance in different atmospheres, were systematically studied.

Wettability and wettability modification methods of porous transport

As a key component of polymer electrolyte membrane electrolysis cells (PEMEC), the wettability of anode porous transport layer (APTL) plays an important role on the transport of gas and liquid water in the anode.

Approaches to design a surface with tunable wettability: a review on

Numerous review articles presenting surface wettability modifications are being published in recent years. The reviews were focused to provide a cumulative information of materials and methods to achieve desired surface wettability.

In the vast realm of modern materials science, wettability remains a critical factor influencing the application performance of materials. As a vital class of polymeric materials, the wettability of resins directly impacts the properties of composites, the ease of processing, and the quality of final products. exploring and optimizing resin wettability is of significant importance for improving overall material performance. This article focuses on the application and effects of pearlescent modification technology in enhancing resin wettability.

Wettability refers to the interaction between a liquid and a solid surface, involving adhesion and spreading forces. For resins, good wettability means the ability to uniformly penetrate the surface of the matrix material, forming a continuous film, which is crucial for interfacial bonding in composites. differences in physical properties between resins and matrix materials, such as thermal expansion coefficients and elastic moduli, often lead to poor wettability, thereby compromising composite performance.

To address this challenge, pearlescent modification technology has emerged. This approach involves adding specific pearlescent pigments to the resin. These pigments typically exhibit unique optical properties, producing a lustrous appearance under ultraviolet or visible light. When dispersed in the resin, they fill microscopic gaps between the resin and the matrix material, increasing contact area and thus improving wettability.

The effects of pearlescent modification are remarkable. Firstly, it significantly enhances the wettability between resin and matrix materials, enabling better penetration and film formation. This strengthens interfacial bonding in composites and reduces defects caused by poor wettability, thereby improving overall performance.

Secondly, pearlescent modification improves the leveling properties and processability of resins. The presence of pearlescent pigments facilitates uniform film formation during flow, reducing bubbles and streaks while enhancing processing efficiency. Additionally, the cured resin exhibits richer gloss and color, expanding design possibilities for composites.

Beyond wettability, pearlescent modification offers other advantages. By adjusting the type and ratio of pigments, resin properties can be finely tuned to meet specific application demands. pearlescent pigments are often more cost-effective than traditional fillers, helping to reduce composite material costs.

Despite its successes, pearlescent modification faces challenges. For instance, adding pigments may affect the mechanical strength and heat resistance of the resin. Thus, pigment selection must balance performance requirements and practical conditions.

Looking ahead, with advancements in materials science, pearlescent modification is poised for broader application. Further research and innovation will likely unlock even greater potential for improving resin wettability.

pearlescent modification demonstrates significant advantages and potential in enhancing resin wettability. By incorporating pearlescent pigments to bridge microscopic gaps between resin and matrix materials, this technique improves not only wettability but also processing properties, offering new possibilities for composite design. While challenges remain, ongoing research promises a brighter future for this technology.