Biothermodynamics

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Plants trap this energy from the sunlight and undergo photosynthesis, effectively converting solar energy into chemical energy. To transfer the energy once again, animals will feed on plants and use the energy of digested plant materials to create biological macromolecules. The biological evolution may be explained through a thermodynamic theory. The four laws of thermodynamics are used to frame the biological theory behind evolution. The first law of thermodynamics states that states that energy can not be created or destroyed.

No life can create energy but must obtain it through its environment. The second law of thermodynamics states that energy can be transformed and that occurs everyday in lifeforms.


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As organisms take energy from their environment they can transform it into useful energy. This is the foundation of tropic dynamics. The general example is that the open system can be defined as any ecosystem that moves toward maximizing the dispersal of energy. All things strive towards maximum entropy production, which in terms of evolution, occurs in changes in DNA to increase biodiversity.

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Thus, diversity can be linked to the second law of thermodynamics. Diversity can also be argued to be a diffusion process that diffuses toward a dynamic equilibrium to maximize entropy. Therefore, thermodynamics can explain the direction and rate of evolution along with the direction and rate of succession. The First Law of Thermodynamics is a statement of the conservation of energy; though it can be changed from one form to another, energy can be neither created nor destroyed. Although some intermediate reactions may be endothermic and others may be exothermic, the total heat exchange is equal to the heat exchange had the process occurred directly.

This principle is the basis for the calorimeter , a device used to determine the amount of heat in a chemical reaction. Since all incoming energy enters the body as food and is ultimately oxidized, the total heat production may be estimated by measuring the heat produced by the oxidation of food in a calorimeter. This heat is expressed in kilocalories , which are the common unit of food energy found on nutrition labels.

The Second Law of Thermodynamics is concerned primarily with whether or not a given process is possible. The Second Law states that no natural process can occur unless it is accompanied by an increase in the entropy of the universe. Living organisms are often mistakenly believed to defy the Second Law because they are able to increase their level of organization. To correct this misinterpretation, one must refer simply to the definition of systems and boundaries.

A living organism is an open system, able to exchange both matter and energy with its environment. For example, a human being takes in food, breaks it down into its components, and then uses those to build up cells, tissues, ligaments, etc. This process increases order in the body, and thus decreases entropy. However, humans also 1 conduct heat to clothing and other objects they are in contact with, 2 generate convection due to differences in body temperature and the environment, 3 radiate heat into space, 4 consume energy-containing substances i.

When taking all these processes into account, the total entropy of the greater system i. When the human ceases to live, none of these processes take place, and any interruption in the processes esp. In biological systems, in general energy and entropy change together.

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Therefore, it is necessary to be able to define a state function that accounts for these changes simultaneously. This state function is the Gibbs Free Energy, G. The change in Gibbs Free Energy can be used to determine whether a given chemical reaction can occur spontaneously. Therefore, this reaction will not occur spontaneously.

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The glucosephosphate is then able to bond with fructose yielding sucrose and inorganic phosphate. This principle of coupling reactions to alter the change in Gibbs Free Energy is the basic principle behind all enzymatic action in biological organisms. From Wikipedia, the free encyclopedia. J Biol Chem. Shannon entropy: A possible intrinsic target property.

Mekjian AZ. Cluster distributions in physics and genetic diversity. Phys Rev ; A44 12 : Samal S, Geckeler KE. Unexpected solute aggregation in water on dilution. Chem Commun ; What Is Life? The Physical Aspects of the Living Cell. London: Cambridge Univ.

Biological thermodynamics

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Subjective experience aspect of consciousness. Part I: Integration of classical, quantum, and subquantum concepts. NeuroQuantology a;7 3 Part II: Integration of classical and quantum concepts for emergence hypothesis. NeuroQuantology b; 7 3 Towards a theory of everything. NeuroQuantology a;8 3 : Part III: Introduction of consciousness in loop quantum gravity and string theory and unification of experiences with fundamental forces.

NeuroQuantology b; 8 4 Biothermodynamics of live cells: A tool for biotechnology and biochemical engineering. J Non-Equilibrium Thermodynamics ; 35 4 : Wiesinger H, Hinz HJ. Thermodynamic Data for Biochemistry and Biothermodynamics.

Biothermodynamics, Part C, Volume 488

Berlin: Springer-Verlag. Myosin V walks hand-over-hand: single fluorophore imaging with 1. Science ; User Username Password Remember me. Article Tools Indexing metadata. How to cite item. Finding References.


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    Email the author Login required. Font Size. Keywords Consciousness brain cognition consciousness decoherence entanglement evolution gravity information mind neuroquantology neuroscience nonlocality quantum brain quantum cognition quantum entanglement quantum mechanics quantum mind quantum physics quantum theory synchronicity.

    lastsurestart.co.uk/libraries/line/3729-what-is.php Notifications View Subscribe. Abstract First, biothermodynamics and bio-entropy are introduced briefly. Next, we propose possible entropy decrease due to internal interactions in some isolated systems in biology, in which the neuroscience, the permeable membrane, the molecular motor, etc.