It is a pleasure to contribute the foreword to Introduction to Cell and Tissue Culture: The ory and Techniques by Mather and Roberts. Despite the occasional appearance of thought ful works devoted to elementary or advanced cell culture methodology, a place remains for a comprehensive and definitive volume that can be used to advantage by both the novice and the expert in the field. In this book, Mather and Roberts present the relevant method ology within a conceptual framework of cell biology, genetics, nutrition, endocrinology, and physiology that renders technical cell culture information in a comprehensive, logical for mat. This allows topics to be presented with an emphasis on troubleshooting problems from a basis of understanding the underlying theory. The material is presented in a way that is adaptable to student use in formal courses; it also should be functional when used on a daily basis by professional cell culturists in a- demia and industry. The volume includes references to relevant Internet sites and other use ful sources of information. In addition to the fundamentals, attention is also given to mod ern applications and approaches to cell culture derivation, medium formulation, culture scale-up, and biotechnology, presented by scientists who are pioneers in these areas. With this volume, it should be possible to establish and maintain a cell culture laboratory devot ed to any of the many disciplines to which cell culture methodology is applicable.

Sergey Fedoroff and Arleen Richardson extensively revise, update, and expand their best-selling and highly praised collection of readily reproducible neural tissue culture protocols. This 3rd edition adds 11 new chapters describing important new procedures for the isolation, growth, and characterization of neural stem cells and for the manipulation of glial progenitor cells, as well as are essential procedures for hippocampal and microglial slice cultures. Protocols for Neural Cell Culture: Third Edition is a richly augmented updating of the tried and tested laboratory procedures that have made earlier editions an indispensable reference and guide to neural cell culture and its disorders.

A comprehensive state-of-the-art collection of the most frequently used techniques for plant cell and tissue culture. Readily reproducible and extensively annotated, the methods range from general methodologies, such as culture induction, growth and viability evaluation, and contamination control, to such highly specialized techniques as chloroplast transformation involving the laborious process of protoplast isolation and culture. Most of the protocols are currently used in the research programs of the authors or represent important parts of business projects aimed at the generation of improved plant materials. Two new appendices explain the principles for formulating culture media and the composition of the eight most commonly used media formulations, and list more than 100 very useful internet sites.

Invertebrate cell culture is increasingly being used in various areas of biological research. Research in cellular biology and pathology that previously depended primarily on in vitro investigations of vertebrate animal cell systems is now being conducted using invertebrate cells. Specialists and pioneers from the United States, Japan, Switzerland, Slovakia, and China have presented original contributions to create a well-balanced cross-section of current developments. Topics discussed include the preparation of cell culture media; cultivation of mosquito, lepidopteran, grasshopper, and tick cells; the application of such cells to mammalian and plant virus research; and diverse applications in medicine, biology, and agriculture. A special chapter devoted to the work of Japanese cell culture pioneers is also featured. All chapters are supported by tables, photographs, and up-to-date bibliographies.

Recently, stem cells have been drawing increasing interest in basic and translational research that aims to understand stem cell biology and generate new therapies for various disorders. Many stem cells can be cultured in 2D relatively easily using tissue culture plastic. However, many of these cultures do not represent the natural conditions of stem cells in the body. In the body, microenvironments include numerous supporting cells and molecules. Therefore, researchers and clinicians have sought ideal stem cell preparations for basic research and clinical applications, which may be attainable through 3D culture of stem cells. The 3D cultures mimic the conditions of the natural environment of stem cells better, as cells in 3D cultures exhibit many unique and desirable characteristics that could be beneficial for therapeutic interventions. 3D stem cell cultures may employ supporting structures, such as various matrices or scaffolds, in addition to stem cells, to support complex structures. This book brings together recent research on 3D cultures of various stem cells to increase the basic understanding of stem cell culture techniques and also to highlight stem cell preparations for possible novel therapeutic applications.

This introductory guide provides novice researchers and lab students with a thorough step-by-step approach to standard animal cell culture techniques. Coverage includes lab safety and best practices, sterility management, preparation, ethical considerations, and troubleshooting for common pain points. This is an up-to-date, indispensable handbook for early-career researchers and students, as well as established scientists in biotechnology, cell and developmental biology, pharmaceutical toxicology, cytogenetics, and more.

This book provides an introduction to the biological background of heart functioning and analyzes the various materials and technologies used for the development of microfluidic systems dedicated to cell culture, with an emphasis on cardiac cells. The authors describe the characterization of microfluidic systems for cardiac cell culture and center their discussion of the use of stem cell stimulation based on four different types: electrical, biochemical, physical, and mechanical. This book is appropriate for researchers focused on on-chip technologies and heart studies, students in bioengineering and microengineering courses, and a variety of professionals, such as biotechnologists, biomedical engineers, and clinicians working in the cardiac diseases field.

Provides all essential practical information for establishing a laboratory animal cell culture. Comprehensive glossary of terms.

Advances in Cell Culture, Volume 7 is a compilation of research papers in the field of cell culture. The contributions reflect the applications of in vitro techniques of cell culture to biotechnology, reviewing the advantages and disadvantages of the methods. This volume covers the cultivation of fish and crustacean cells; gene transfer in insect cells; and the study of bacterial protein toxins using vertebrate cells. The fusion of plant protoplasts by electromanipulation; anther and microspore cultivation; gene transfer to induce morphogenesis; formation of phenolic compounds in cells and tissues in vitro; and new media and culture systems for the large-scale production of insect cells are discussed as well. Also included in the book is a biographical sketch of the 1986 Nobel Laureate Rita Levi-Montalcini, the developmental biologist who identified the nerve growth factor (NGF), a protein that is necessary for the growth, development, and maintenance of nerve cells in the peripheral nervous system and, apparently, also in the brain. Cell biologists and researchers who use in vitro techniques will find the book highly informative and insightful.