Collection

Artificial Intelligence for Materials Discovery

This Collection welcomes original research that advances the application of artificial intelligence, machine learning, and autonomous experimentation in materials science. It aims to accelerate the discovery, design, and optimization of functional materials through data-driven methodologies, predictive modeling, and intelligent laboratory systems, enabling innovations in energy, healthcare, electronics, photonics, and sustainable technologies.

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Hydrogels and Soft Materials

This Collection welcomes original research that advances the design, synthesis, characterization, and application of hydrogels and soft materials across biomedical and engineering disciplines. It aims to uncover structure–property relationships and functional mechanisms that enable innovations in tissue engineering, regenerative medicine, drug delivery, bioelectronics, soft robotics, and responsive biomaterial systems.

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Immunoengineering and Immune Modulation

This Collection welcomes original research that advances our understanding of immune regulation through engineered materials, molecular technologies, and cellular therapies. It aims to elucidate mechanisms governing immune activation, tolerance, inflammation, and tissue repair, supporting the development of innovative immunotherapies, vaccines, biomaterials, regenerative medicine, and precision healthcare strategies.

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Photonic Technologies for Biomedicine

This Collection welcomes original research that advances the development and application of photonic technologies for biomedical research and clinical medicine. It aims to investigate light–matter interactions across biological systems while enabling innovations in optical imaging, biosensing, phototherapy, neuromodulation, photobiomodulation, and precision diagnostics for next-generation healthcare.

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Bioinspired Materials and Interfaces

This Collection welcomes original research that explores bioinspired materials and functional interfaces designed to emulate, regulate, or integrate with living systems. It aims to reveal the principles governing material–cell interactions, adaptive biological responses, and dynamic microenvironments, fostering advances in regenerative medicine, tissue engineering, wearable bioelectronics, and advanced biomaterials.

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Quantum Technologies for Life Sciences

This Collection welcomes original research that explores emerging quantum technologies and their applications across biology, medicine, and healthcare. It aims to investigate quantum sensing, imaging, computation, and biological interactions while promoting interdisciplinary advances that bridge quantum science, materials engineering, biotechnology, and next-generation biomedical innovation.