Composite Functional Materials(CFM), published by INTERNATIONAL SCIENCE ACCELERATOR (ISA), is an interdisciplinary journal that caters to chemists, physicists, material scientists, engineers, and biologists, focusing on the development and application of innovative composite materials. The journal publishes peer-reviewed short communications, review articles, and full-length research papers that present cutting-edge advances in composite science and technology. Articles are supported by fundamental theoretical modeling, interface engineering, and functional approaches to composite development. The scope covers research across multiple length scales, ranging from the nanoscale to micro, meso, and full-scale product or structural levels. Emphasis is placed on composite processes aimed at high-performance applications, spanning both low-volume/high-cost and high-volume/low-cost production. This includes work that pushes the boundaries of composite materials for diverse applications, supported by advanced research in processing, performance, and functionalization.

Composite Functional Materials welcomes manuscripts presenting innovative concepts and novel discoveries in the design and development of composite materials. The journal seeks contributions that highlight state-of-the-art methods in processing, synthesis, and characterization, as well as emerging applications in areas such as energy harvesting and storage, environmental pollution control and remediation, and advanced sensing technologies, including optical, electrical, magnetic, and acoustic sensors. Additionally, the journal covers breakthroughs in optoelectronic devices, wearable biological systems, and catalytic applications-spanning photocatalysis, electrocatalysis, thermocatalysis, and piezoelectric catalysis-using composite materials. Submissions may focus on a wide range of composite types, including micro- and nano-composites, bio-composites, functional and smart composites, green and eco-friendly composites, energy composites, and composites that mimic the properties and structures of natural materials.