Exploration of new properties of nanomaterials is of great importance ranging from fundamental research to real world practical applications. The Discover Chemistry journal is pleased to announce the call for articles for a topical collection focusing on the exploration of new properties of nanomaterials as biosensors and their diverse applications in biochemical, biological, and biomedical fields. Nanobiosensors have emerged as a highly attractive alternative to conventional biosensors due to their unique physical, chemical, optical, electrical, thermal, and photothermal properties.

Over the past few decades, nanobiosensor technology has seen significant advancements and expansions, resulting in numerous advantages such as high sensitivity, high specificity, enhanced stability, low cost, portability, biocompatibility, and integration capabilities. These advancements have paved the way for a wide range of applications in various areas, including environmental surveillance, clinical diagnostics, drug delivery, tissue engineering, and more.

The goal of this Topical Collection is to showcase the state-of-the-art research in innovative nanobiosensor development and their applications. We invite original research articles that delve into the exploration of new properties of nanomaterials as biosensors and highlight their potential in diverse biochemical, biological, and biomedical applications.

Topics of interest for this collection include, but are not limited to: Development of novel nanomaterials as biosensors; Design and optimization of nanobiosensor platforms; Applications of nanobiosensors in environmental monitoring; Nanobiosensors for clinical diagnostics and therapeutics; Nanobiosensors in tissue engineering and regenerative medicine; etc.

We encourage researchers from all over the world to contribute their cutting-edge research to this Topical Collection. By exploring new properties of nanomaterials as biosensors and their diverse applications, we aim to advance the field of chemistry and promote the development of innovative technologies with potential for significant impact in various research fields.

Keywords: Nanobiosensor, Nanotechnology, Biochemical & Biomedical applications, Environmental surveillance, Clinical diagnostics, Drug delivery, Tissue engineering

Material chemistry has a long-standing history and has been extensively exploited in a wide range of life science research such as biological, chemical, and environmental engineering. The invention of novel materials for biological applications has led to the creation of biomaterials for tissue engineering, nanomaterials for drug delivery, and smart materials that interact dynamically with biological systems. These advances have significantly revolutionized the fields of healthcare including medical treatments, diagnostics, and biological studies. In recent years, the synergy between material chemistry and life sciences has been particularly evident in the development of materials that enable precision medicine, improve the accuracy of diagnosis, and facilitate regeneration of defected tissues. In particular, nanoparticles engineered for targeted drug delivery have significantly enhanced the efficacy of treatments while minimizing side effects, and responsive biomaterials have opened new avenues for developing adaptive therapeutic devices. The application of these advanced materials in life science not only enhances our understanding of biological processes but also paves the way for innovative solutions to pressing healthcare challenges. This topical collection aims to cover papers that explore the intersection of material chemistry and life sciences, focusing on the design, synthesis, and application of advanced materials in biological contexts. Translational advances in material chemistry for healthcare, biotechnology, and environmental sustainability will be highlighted in this topical collection, reflecting the multidisciplinary nature of this rapidly evolving field.

Keywords: Material chemistry, life science, biomaterials, smart materials, drug delivery, nanomaterials, medicinal chemistry.