Many organisms have evolved the ability to enter into and revive from a dormant state. They can survive for long periods in this state (often even months to years), yet can become responsive again within minutes or hours. This is often, but not necessarily, associated with desiccation. Preserving one's body and reviving it in future generations is a dream of mankind. To date, however, we have failed to learn how cells, tissues or entire organisms can be made dormant or be effectively revived at ambient temperatures. In this book studies on organisms, ranging from aquatic cyanobacteria that produce akinetes to hibernating mammals, are presented, and reveal common but also divergent physiological and molecular pathways for surviving in a dormant form or for tolerating harsh environments. Attempting to learn the functions associated with dormancy and how they are regulated is one of the great future challenges. Its relevance to the preservation of cells and tissues is one of the key concerns of this book.

Akinetes: Dormant Cells of Cyanobacteria

Saccharomyces cerevisiae Spore Germination
Dormancy in Plant Seeds
Bud Dormancy in Perennial Plants: A Mechanism for Survival
LEA Proteins: Versatility of Form and Function
A Role for Molecular Studies in Unveiling the Pathways for Formation of Rotifer Resting Eggs and Their Survival During Dormancy
Anhydrobiotic Abilities of Tardigrades
Cryoprotective Dehydration: Clues from an Insect
A Molecular Overview of Diapause in Embryos of the Crustacean, Artemia franciscana
An Exploratory Review on the Molecular Mechanisms of Diapause Termination in the Waterflea, Daphnia
Metabolic Dormancy and Responses to Environmental Desiccation in Fish Embryos
Mammalian Hibernation: Physiology, Cell Signaling, and Gene Controls on Metabolic Rate Depression
Lessons from Natural Cold-Induced Dormancy to Organ Preservation in Medicine and Biotechnology: From the "Backwoods to the Bedside".