Man Made Closed Ecological Systems

Providing a broad historical perspective, this book explores the interactions between humans, microorganisms, and plants in a closed habitat, and the life support systems necessary to maintain habitability over long periods of time. Topics include the cultivation of bacteria, microalgae and higher plants; the use of biotechnology to support life outside the Earth's biosphere; methods for recycling air, water and food for human consumption; interactions between humans and other organisms in CMESs; and methods for intensifying the level of photosynthesis. In addition to space the authors investigate problems associated with living conditions in dangerous or difficult environmental areas on Earth such as the Arctic and Antarctica, deserts and mountains.

Man-Made Closed Ecological Systems explores the interactions between humans, microorganisms, and plants in a closed habitat, and the life support systems necessary to maintain habitability over long periods of time. Problems and approaches involved in creating closed man-made ecological systems (CMESs) from a theoretical and experimental viewpoint are given. Topics include the cultivation of bacteria, microalgae and higher plants; the use of biotechnology to support life outside the Earth's biosphere; methods for recycling air, water and food for human consumption; interactions between humans.

What Is Closed Ecological Systems A closed ecological system is an ecosystem that provides for the maintenance of life through complete reutilization of available material, in particular by means of cycles wherein exhaled carbon dioxide, fuel and other waste matter are converted, chemically or by photosynthesis, into oxygen, water and food. Closed Ecological Systems: Can They Save the Future? What is a Closed Ecological System? Why Would We Need Closed Ecological Systems? What Are the Different Types of Closed Ecological Systems? BIOS-1, BIOS-2, and BIOS-3 Biosphere 2 MELiSSA What Are the Challenges of Creating Closed Ecological Systems? Can Closed Ecological Systems Change the Future? How You Will Benefit (I) Insights, and validations about the following topics: Chapter 1: Closed Ecological System Chapter 2: Biosphere Chapter 3: Biosphere 2 Chapter 4: Bioshelter Chapter 5: Greenhouse Chapter 6: Seawater Greenhouse Chapter 7: IBTS Greenhouse Chapter 8: Eden Project Chapter 9: Chang'e 4 Chapter 10: Space Stations and Habitats in Fiction Chapter 11: Controlled Ecological Life-Support System Chapter 12: Controlled-Environment Agriculture Chapter 13: Ecosphere (Planetary) Chapter 14: Spome Chapter 15: Ecology Chapter 16: Ecosystem Service Chapter 17: Terraforming Chapter 18: Space Colonization (II) Answering the public top questions about closed ecological systems. (III) Real world examples for the usage of closed ecological systems in many fields. (IV) 17 appendices to explain, briefly, 266 emerging technology in each industry to have 360-degree full understanding of closed ecological systems' technologies. Who This Book Is For Professionals, undergraduate and graduate students, enthusiasts, hobbyists, and those who want to go beyond basic knowledge or information for any kind of closed ecological systems.

Phytomass and Primary Production of the Various Vegetational Zones and of the Entire Biosphere The biosphere is that thin layer at the earth's surface in which living organisms exist and biological cycling takes place. It includes the upper horizons of the soil in which plants root, the atmosphere near the ground, (insofar as organisms penetrate this space), and all the surface waters. More than 99% of the earth's biomass is phytomass, to which we shall limit our discussion. Amounts of phytomass are distinctly related to vegeta tional zones. Because accurate determination of phytomass and primary production is difficult, only gross estimates have been available until recently. However, in 1970, Bazilevich et al. published (in Russian) more accurate calculations, based on the rapidly accumulating literature, for the various thermal zones and bioclimatic regions of the earth. These authors calculated mean phyto mass and mean annual primary production for the various regions as dry mass (in tons) per hectare. On the basis of measurements of the areas covered by the individual regions, excluding rivers, lakes, glaciers, and permanent snow, total phytomass and total annual primary production for the various regions were obtained (see table). The sum of these figures is the phytomass and annual production of the land surface of the earth. In addition, the table gives corresponding data for the waters of the earth. The values involved are potential i. e. , they are based on natural vegetation uninfluenced by man.

Global climate change is one of the most serious and pressing issues facing our planet. Rather than a “silver bullet” or a single study that solves it, the study of global climate change is like a beach, with each contribution a grain of sand, gathered together as a whole to create a big picture, moving the science forward. This new groundbreaking study focuses on the adaptation and tolerance of plants and animal life to the harsh conditions brought on by climate change or global warming. Using the papers collected here, scientists can better understand global climate change, its causes, results, and, ultimately, the future of life on our planet. The first section lays out a methodology and conceptual direction of the work as a whole, covering the modeling, approaches, and the impacts studied throughout the book. The second section focuses on certain hypotheses laid out by the authors regarding how plants and animal life can adapt and survive in extreme environments. The third section compiles a series of ecological experiments and their conclusions, and a final section is dedicated to previous scientific breakthroughs in this field and the scientists who made them. Whether for the scientist in the field, the student, or as a reference, this groundbreaking new work is a must-have. Focusing on a small part of the global climate change “beach,” this “grain of sand” is an extremely important contribution to the scientific literature and a step forward in understanding the problems and potentialities of the issue.

It is becoming increasingly clear that the future of the world cannot be sustained without scientific support, analysis, prediction and the use of scientific achievement. The immensity of the problems confronting us, coupled with the limited financial resources available, urgently demand the selection of priority areas of research, with a global combination of scientific effort. The new geopolitical situation has uncovered Russia's and the former Soviet Union's scientific potential. This has given rise to wider opportunities for involvement in work on international projects and programmes, many of which are discussed in the present volume. The book addresses specifically priority fields of science in which joint, multidisciplinary research should be developed, encompassing rational use of natural resources and regional sustainable development, as well as the monitoring of the biosphere's ecosystem state and the risks of natural and anthropogenic hazards, and the creation of new materials and technologies. The list of priorities includes Siberia's economic, social and humanitarian problems, as well as the development of information systems for the rapid exchange of scientific data. There is a recognised need for the involvement of young scientists in partnership laboratories, in a probationary capacity.

The book presents a consistent and complete ecosystem theory based on thermodynamic concepts. The first chapters are devoted to an interpretation of the first and second law of thermodynamics in ecosystem context. Then Prigogine's use of far from equilibrium thermodynamic is used on ecosystems to explain their reactions to perturbations. The introduction of the concept exergy makes it possible to give a more profound and comprehensive explanation of the ecosystem's reactions and growth-patterns. A tentative fourth law of thermodynamic is formulated and applied to facilitate these explanations. The trophic chain, the global energy and radiation balance and pattern and the reactions of ecological networks are all explained by the use of exergy. Finally, it is discussed how the presented theory can be applied more widely to explain ecological observations and rules, to assess ecosystem health and to develop ecological models.