Every material has an active presence and every material is susceptible to change. The task of the sculptor is to understand the natural properties of a chosen material, to know in the process of creation how best to work with, or against, its characteristics. In this generously illustrated studio manual, sculptor Oliver Andrews takes a new approach to sculpture, focusing on how the innate assertiveness of materials affects the complex act of making a sculpture.

This book will serve as a primer for readers to understand recent advances, applications, and current challenges in the field of Engineered Living Materials. The chapters cover core science and engineering research areas, including (1) advances in synthetic biology and genetic programmability for Engineered Living Materials, (2) functional Engineered Living Material for application in energy, electronics, and construction, and (3) novel manufacturing approaches for Engineered Living Materials at multiple scales. The emerging field of Engineered Living Materials represents a significant paradigm shift in materials design and synthesis, in which living cells are used to impart biologically active functionalities to manmade materials. The result is a genetically programmable augmentation of non-living matter to exhibit unprecedented life-like (i.e., living) capabilities. At the intersection of synthetic biology and materials science, the field of Engineered Living Materials exhibits unprecedented promise and potential to alter the way we synthesize new materials and design medical devices, fabrics, robotics, commodity polymers, and construction materials. Materials with attributes of living systems can be engineered with an ability to respond to their environment and designed to self-repair in response to physical or other stresses or detect the presence of specific stimuli, such as light, heat, pressure, or hazardous chemical compounds. Although nascent, scientists and researchers in the field of Engineered Living Materials have made marked advances in demonstrating a potential to revolutionize a multitude of science and engineering disciplines. This volume will define the current state of the art of Engineered Living Materials, and highlight grand opportunities and challenges that abound at the nexus of synthetic biology and materials science and engineering.

Reprint of the original, first published in 1877.

The use of innovative new materials is an important trend in landscape architecture today. These materials include biodegradable geotextiles, super-absorbent polymers, and plants that react to changing soil conditions. This book presents the available materials and technologies in the context of practical applications.

Modern biotechnologies give us unprecedented control of the fundamental building blocks of life. For designers, across a range of disciplines, emerging fields such as synthetic biology offer the promise of new sustainable materials and structures which may be grown, are self-assembling, self-healing and adaptable to change. While there is a thriving speculative discourse on the future of design in the age of biotechnology, there are few realized design applications. This book, the first in the Bio Design series, acts as a bridge between design speculation and scientific reality and between contemporary design thinking, in areas such as architecture, product design and fashion design, and the traditional engineering approaches which currently dominate biotechnologies. Filled with real examples, Living Construction reveals how living cells construct and transform materials through methods of fabrication and assembly at multiple scales and how designers can utilize these processes.

Reasons for the study of tissue materials are discussed. Specific aspects of the musculo-skeletal system are considered, the main emphasis being on bone. Structure and different mechanical properties of parying types of bone are discussed by the authors, with the concluding chapter dealing with mechanically mediated electrical properties and their relevance to bone structure and to growth or repair.

"This is the first book to provide a comprehensive overview of the conservation of biological materials used in contemporary art"--

Synthetic biology is enabling scientists to use engineered genetic circuits in the cells as the basis for the development of new living therapeutics and as a powerful new weapon in the fight against diseases, especially cancer. Bacteria-mediated therapy is a promising alternative cancer treatment. The book covers the recent developments of cellular therapies from a synthetic biology perspective including engineered microbial therapies, CAR-T therapies etc. and is an indispensable guide to scientists in both biotechnology and medicine.

Advances in Applied Microbiology, Volume 122 continues the comprehensive reach of this widely read and authoritative review source in microbiology. Users will find invaluable references and information on a variety of areas relating to the topic of microbiology. This release includes updates on BioMateriOME: to understand microbe-material interactions within sustainable, living architectures. - Contains contributions from leading authorities in the field - Informs and updates on the latest developments in the field of microbiology - Includes discussions on the role of specific molecules in pathogen life stages, interactions, and much more

The theory of Co-Corporeality is based on a conception of the built environment as a biological entity that opens up a space for coexistence and interaction between humans and microbial life. Based on design-led research, this book explores how we can develop environments for a multispecies world. It focuses on the agency of both human and nonhuman actors. New sensor tools enable observation of and interaction between these different actors. Co-Corporeality links microbiology to material science, artificial intelligence, and architecture. The focus is on how microbial activity can create new protoarchitectural materials, how living systems can be integrated into architecture and cooperate along different time scales.