Chemical Elements In Life

How did life begin? Starting with the Big Bang Theory, this book systematically discusses scientific findings and hypotheses on topics such as the origin of chemical elements, formation of life on Earth, evolution of life elements, their subtle chemical reactions and miraculous physiological functions. The content in this book is carefully arranged to focus on major scientific discoveries in various disciplines related to life science, with particular emphasis on the vital relationship between chemical reactions in the human body and health, shedding light on hot issues of public concern such as nutrition and human longevity. Important concepts covered include chemical circulation and the dynamic balance of elements both within ourselves, and with the environment. Ultimately, the takeaway message is that the success of keeping the tree of life evergreen depends not only on the advancement of life science research, but also on whether human beings can follow the laws of nature and maintain a harmonious relationship with the earth.

Emphasises on contemporary applications and an intuitive problem-solving approach that helps students discover the exciting potential of chemical science. This book incorporates fresh applications from the three major areas of modern research: materials, environmental chemistry, and biological science.

A World From Dust describes how a set of chemical rules combined with the principles of evolution in order to create an environment in which life as we know it could unfold. Beginning with simple mathematics, these predictable rules led to the advent of the planet itself, as well as cells, organs and organelles, ecosystems, and increasingly complex life forms. McFarland provides an accessible discussion of a geological history as well, describing how the inorganic matter on Earth underwent chemical reactions with air and water, allowing for life to emerge from the world's first rocks. He traces the history of life all the way to modern neuroscience, and shows how the bioelectric signals that make up the human brain were formed. Most popular science books on the topic present either the physics of how the universe formed, or the biology of how complex life came about; this book's approach would be novel in that it condenses in an engaging way the chemistry that links the two fields. This book is an accessible and multidisciplinary look at how life on our planet came to be, and how it continues to develop and change even today. This book includes 40 illustrations by Gala Bent, print artist and studio faculty member at Cornish College of the Arts, and Mary Anderson, medical illustrator.

This beautifully written book is a study of the physical relationship between the inanimate environment and living organisms. It describes how the evolution of both has been interactive and interdependent; the authors show that this can be explained in terms of the properties of the chemical elements and their compounds. The book discusses the physical and chemical balances between the animate and inanimate worlds, with kinetic and thermodynamic principles given to support this analysis. These principles are applied to both organic and inorganic chemical systems to provide a basis for understanding the evolution of life in terms of the interaction of both types of chemistry within ever more complex organizations. The book concludes with an examination of an intriguing problem: the long-term consequences of our manufacture and exploitation of chemicals. This intervention may be altering the symbiotic relationship between life and the environment, an issue of great concern to ecologists and biologists as well as those who study chemistry.

The stacked boxes in the Periodic Table of the Elements hold surprises. These elements tell a story that gives a hidden order to chemistry, geology, biology, and even history. Ben McFarland traces billions of years of evolution, beginning with math and ending with us. In this story, the periodic table helps us see new things. These events come alive in 40 original illustrations by print artist Gala Bent and medical illustrator Mary Anderson.-- book jacket.

In this book, the authors describe the long journey from formless inanimate matter to man, explaining the nature and the logic of the physical-chemical processes involved. It stresses the limitations of reductionism analyses of these processes as complexity increases and novel properties emerge. And, in particular, the authors develop the idea that it was chemical change of the environment that allowed evolution of life to occur and that this evolution required successive addition of new message systems and information codes connected, compatible, and cooperative with previous extant systems. In doing so, the authors analyze the relationship between chemical element content and speciation both in inanimate and living systems in terms of fundamental units and variables or composite (derived) units and variables. Through such analysis, the authors conclude that chemical speciation is very much a matter of chemical cooperation (order versus disorder) while biological speciation requires cooperative flow of chemicals and energy (organization versus disorder). They argue that chance mutations of DNA are far too simple to provide a basis for evolution and biological diversity, though it is a representation of such diversity. It is the survival strength of systems of molecular machinery which separate and generate living species. In the final chapter, they analyze the effect of man's activities on the present global and local ecosystems and speculate on the possible nature of the emergent properties to be expected from an ever-increasing complexity of information based modern societies.

In Assembling Life, David Deamer addresses questions that are the cutting edge of research on the origin of life. For instance, how did non-living organic compounds assemble into the first forms of primitive cellular life? What was the source of those compounds and the energy that produced the first nucleic acids? Did life begin in the ocean or in fresh water on terrestrial land masses? Could life have begun on Mars? The book provides an overview of conditions on the early Earth four billion years ago and explains why fresh water hot springs are a plausible alternative to salty seawater as a site where life can begin. Deamer describes his studies of organic compounds that were likely to be available in the prebiotic environment and the volcanic conditions that can drive chemical evolution toward the origin of life. The book is not exclusively Earth-centric, but instead considers whether life could begin elsewhere in our solar system. Deamer does not propose how life did begin, because we can never know that with certainty. Instead, his goal is to understand how life can begin on any habitable planet, with Earth so far being the only known example.