Traditionally, most synthetically developed materials are hardened by heating them to an elevated temperature, a process requiring large amounts of energy and space. Interest in photo cured materials using UV-light is growing due to simplifications in manufacturing and growing environmental concerns; it is expected photocuring could reduce electricity consumption by 90% compared to traditional curing. Photocured materials also reduce evaporation of volatile organic components, curing time and waste, thereby enhancing productivity and reducing work space.

The materials technologies based on photocuring are gaining momentum, and this will be the first book to provide an in-depth focus on the subject. This book summarises the fundamentals required to understand the field, characterises the use of novel materials and the development of synthetic aspects, and discusses the future of the technology.

The comprehensive review chapters are suitable for a broad readership from diverse backgrounds including chemistry, physics, materials science and engineering, medical science, pharmacy, biotechnology and biomedical engineering. Photocured Materials will be of interest to students, researchers, scientists, engineers and professors.

Traditionally, most synthetically developed materials are hardened by heating them to an elevated temperature, a process requiring large amounts of energy and space. Interest in photo cured materials using UV-light is growing due to simplifications in manufacturing and growing environmental concerns; it is expected photocuring could reduce electricity consumption by 90% compared to traditional curing. Photocured materials also reduce evaporation of volatile organic components, curing time and waste, thereby enhancing productivity and reducing work space.

The materials technologies based on photocuring are gaining momentum, and this will be the first book to provide an in-depth focus on the subject. This book summarises the fundamentals required to understand the field, characterises the use of novel materials and the development of synthetic aspects, and discusses the future of the technology.

The comprehensive review chapters are suitable for a broad readership from diverse backgrounds including chemistry, physics, materials science and engineering, medical science, pharmacy, biotechnology and biomedical engineering. Photocured Materials will be of interest to students, researchers, scientists, engineers and professors.

Traditionally, most synthetically developed materials are hardened by heating them to an elevated temperature, a process requiring large amounts of energy and space. Interest in photo cured materials using UV-light is growing due to simplifications in manufacturing and growing environmental concerns; it is expected photocuring could reduce electricity consumption by 90% compared to traditional curing. Photocured materials also reduce evaporation of volatile organic components, curing time and waste, thereby enhancing productivity and reducing work space.

The materials technologies based on photocuring are gaining momentum, and this will be the first book to provide an in-depth focus on the subject. This book summarises the fundamentals required to understand the field, characterises the use of novel materials and the development of synthetic aspects, and discusses the future of the technology.

The comprehensive review chapters are suitable for a broad readership from diverse backgrounds including chemistry, physics, materials science and engineering, medical science, pharmacy, biotechnology and biomedical engineering. Photocured Materials will be of interest to students, researchers, scientists, engineers and professors.