1、Research progress on modification of phenolic resin

In recent years, more and more researchers have focused on the discussion of the properties of modified phenolic resins and gradually ignored the research on the synthesis processes that can affect the molecular structure and properties of phenolic resins.

2、Novel Structural Design Strategies in Ceramic

Published research confirms that ceramics modification could not only significantly enhance the oxidation and ablation resistance of C/C composites but also improve the mechanical and functional performance in some cases.

3、Advances in the processing of ceramic matrix composites: a review

Ceramic matrix composites (CMCs), characterized by exceptional physical and mechanical properties, wear resistance, thermal stability, and dimensional integrity, are increasingly adopted in aerospace thermal components, energy systems, and automotive braking applications.

4、Research and application of biomimetic modified ceramics and ceramic

Therefore, it is necessary to summarize the functional structures and mechanisms in nature and biomimetic preparation technology. The purpose of this review is to provide guidance for the functionalized biomimetic design and efficient preparation of ceramic materials.

High

To deal with this challenge, in this work, we have designed and fabricated a series of epoxy based composite potting-adhesives filled with low-cost and high-performance inorganic micro-particles...

Surface modification methods of ceramic filler in ceramic

The present review paper focuses on the current state of the art of the alumina-silicate ceramics and surface modifications of ceramics dedicated as fillers in composites with carbon fiber.

(PDF) Ceramic Matrix Composites: Classifications, Manufacturing

Ceramic matrix composites (CMCs) are a significant advancement in materials science and engineering because they combine the remarkable characteristics of ceramics with the strength and...

Chemical Surface Modification Methods of Resin Composite Repaired with

However, the shear bond strength (SBS) of chemical surface modification methods of aged resin composite repaired with RMGIC is underreported in the literature. The purpose of this research was to explore the chemical surface modification strategies for resin composites that have been repaired using RMGIC.

A review on additive manufacturing of ceramic matrix composites

Additive manufacturing (AM) of ceramic matrix composites (CMCs) has enabled the production of highly customized, geometrically complex and functionalized parts with significantly improved properties and functionality, compared to single-phase ceramic components.

Research Process on Preparation of Carbon Fiber Reinforced Ceramic

In this paper, the research progress of porous low-density C/C substrate structure, matrix modification composition and preparation process affecting the preparation of carbon fiber reinforced ceramic matrix composites by RMI is reviewed.

With the rapid development of modern industry, advancements in material science have become a critical driver of technological progress. Particularly in the field of ceramics, their unique physicochemical properties and excellent mechanical performance have made them a key focus of material research. Ceramic-resin composites, as a new type of engineering material, offer broad application prospects in aerospace, automotive manufacturing, electronics, and other fields due to their superior combined properties. in-depth research on the modification processes of ceramic-resin composites is of significant practical importance for enhancing their performance.

1. Overview of Ceramic-Resin Composites

Ceramic-resin composites are high-performance materials formed by combining ceramic particles with a thermosetting resin matrix through specific processes. These composites retain the high hardness, wear resistance, and thermal stability of ceramics while incorporating the machinability and design flexibility of the resin matrix. stress concentration at the ceramic-resin interface often limits their performance in certain applications. Modifying these composites to improve their mechanical and environmental resistance properties has become an important direction in material science research.

2. Modification Methods for Ceramic-Resin Composites

2.1 Surface Treatment Technologies Surface treatment technologies are critical for improving the performance of ceramic-resin composites. By coating ceramic particles with specialized binders or employing nanotechnology, the surface roughness of the particles can be reduced, mitigating stress concentration at the interface and enhancing overall composite performance. Additionally, surface treatments can introduce reactive sites to promote chemical bonding between the resin matrix and ceramic particles, further improving interfacial adhesion strength.

2.2 Filling Reinforcement Techniques Filling reinforcement techniques involve adding ceramic particles to the resin matrix to enhance mechanical properties. Selecting appropriate ceramic particle types and sizes helps achieve uniform dispersion, reducing particle agglomeration and increasing fracture toughness and impact resistance. The filling ratio is also crucial, as optimal proportions must be determined experimentally to balance performance.

2.3 Heat Treatment Processes Heat treatment is another common modification method that alters the microstructure of ceramic-resin composites to improve performance. For example, high-temperature sintering can create a tighter bond between the resin matrix and ceramic particles, enhancing thermal stability and mechanical strength. Heat treatment can also adjust crystal structures and phase compatibility to improve mechanical and environmental resistance properties.

3. Application Prospects of Ceramic-Resin Composites

As technology advances, ceramic-resin composites have demonstrated immense potential across various fields. In aerospace, they can be used to manufacture critical components such as aircraft engine parts and satellite structural components, leveraging their lightweight and high-strength characteristics to enhance vehicle performance and reliability. In automotive manufacturing, these composites are employed in body structures and transmission systems to improve safety and fuel efficiency. In electronics, their excellent electrical insulation and thermal resistance make them ideal for motors, transformers, and other equipment.

modification processes are key to unlocking the high-performance potential of ceramic-resin composites. Through surface treatment, filling reinforcement, and heat treatment, their properties can be significantly improved to meet growing industrial demands. In the future, ongoing advancements in material science will likely expand the applications of ceramic-resin composites across even more domains.