My Life Organized Activation Energy

The exact quantity of kinetic energy, associated with its location in a given time and space is known as a microstate of the energetic molecules (or thermodynamic systems). It depends on the, specifically, on the amount of energy assigned for the space where the interaction of charged particles happens - promoted by photons- to generate the Proton Motile Force, which is the physical expression, detectable and quantifiable, of life. This nature of interactions between charged particles through photons takes place in any electrodynamic field.

We do not have a direct definition of life, but from direct and indirect observations of the thermal state of the living structures, we can give the next definition of life. Delaying is not the same as revert; although revert could cause a delay, it is not the behavior of processes or states in nature.

Alright, so activation energy is involved in chemical reactions all around us, but how is this useful and practical for our everyday lives? Before we talk about how to get started, I wanted to let you know I researched and compiled science-backed ways to stick to good habits and stop procrastinating. Want to check out my.

Many authors say that life involves a violation of the second law of thermodynamics, or that it follows trajectories against entropy, which is not factual. The referred law indicates that the energy always flows from a space or system with a high density of energy toward another space or system with a lower density of energy, which is precisely how life occurs. The Universe has a higher density of energy than that of the biosystems. If it were not thus, then life would not be possible. The confusion was originated when some properties associated with the entropy were subordinated like alternatives to explain biotic features; for example, order, complexity, etc. However, to acquire order or to be more complex, the biosystem should transfer disorder toward the Universe and it has to take complexity from the Universe.

Seen in this way, there is not any violation at the second principle of thermodynamics, every time that the biosystems are more disordered than the Universe and its disorder flows from the most disorderly system (the biosystems) toward the less disorderly system (the Universe). The major order of the Universe -as a whole- in contrast with any of its components, is specified by the theory of the energy density of the Higgs’ fields.

In the operational definition of life I used the concept of internal energy: internal energy of a system is the energy associated to the movement of the molecules in a thermodynamic system, that is to say, the energy subordinated to the temperature of such system. In an energy transfer, the internal energy of a biosystem is the energy that has already been transferred through the real or imaginary limits of that system (toward the inside of that system). For example, a multicellular biont has an external protector cover that isolates it partially from the environment. Each cell of a multicellular biont has a membrane or a wall that constitutes its real limits. There are organelles, as mitochondria, chloroplasts, etc. Into each cell that have their own membranes as real limits, etc.

In the definition of internal energy I avoided to mention the words “disorderly”, “random” and “chaos” in relation to the molecular movement because the movements at a mesoscopic level are determined by microscopic fundamental laws that can be formally described by the mathematical notions of natural phenomena; therefore, the molecular movements are not chaotic, disordered or accidental. A small variation in the initial conditions can produce a change in the displacement of the particles, whether that we perceive or not that microscopic oscillation or the law that governs it. A spontaneous process is that in which the energy always is dispersed toward more potential microstates. By this, when I talk about life, I am referring to no-spontaneous processes. For a spontaneous process to occur, it is not required the aggregation of energy of the environment, but of the transfer of energy toward the environment (exergonic process). In contrast, the life processes are endergonic, that is to say, processes that requires of the input of energy from the environment, or no-spontaneous processes.

Finally, the quantum state of the energy in a biotic system is established by the flow of fermions and bosons that possess a quasi-stable density of energy during the transfer and storage of the energy through limited periods of time. For example, in the process of Transquantum Thermal Biotransfer of photosynthesis we study the positions, density and movements of the internal energy of a boson (photon) and of the fermions (electrons and protons) implied in the successive biotransfer of the energy freed by that boson. In the Transquantum Thermal Biotransfer of fermentation we study the density and the movements of the internal energy of the fermions, etc.

The organization of the structures and the linkage of their function distinguish to living beings from inert beings more than an upper order or exceptional complexities. The molecules self organize to construct cells, the cells to form tissues, the tissues to form out organs, the organs apparatuses and systems, and the assembly of all the interconnected systems makes an individual. There are individuals that are constituted by only one cell, for example bacteria, protists and some fungi (for example yeasts and molds); however, although in quantity and/or volume a multicellular organism possesses more matter, they will not be more complex or more ordered than a unicellular individual.

It is feasible to find well organized inert beings, by which we need to include other contextual-to-life characteristics. The observation of the whole set of characteristics permits us to distinguish between living beings and inert beings. The other characteristics that will help us are Reproduction and Evolution, although we even can find well organized inert beings that self reproduce and evolve, there is another characteristic that an inert being cannot cover, the no-spontaneous manipulation of the energy to continue getting it from the environment.

• Some inert thermodynamic systems can continue their quantum state by self-reproducing, as living thermodynamic systems do; but inert thermodynamic systems cannot preserve their lowest number of possible microstates from one generation to another generation. The living thermodynamic systems maintain a cuasi-stable amount of microstates that had to be increased spontaneously (change of entropy), temporarily expanding the increase of their local entropy. Nonliving thermodynamic systems also can maintain a limited number of available microsystems. Nevertheless, in nonliving thermodynamic systems there are not internal operators that carry out this action, whereas the living systems have a series of processes in cascade that operate from their internal system and maintain their internal energy within a thermal state of no equilibrium. The last should be explained by an example: Consider an inert system to confront a selective pressure from the environment, for example, a protein exposed to a temperature of 50° C. As an inert system, it will experience a phase transition to a phase known as denaturalization, or it will go through a phase of disintegration. These will be limited spontaneous trajectories available for the inert thermodynamic systems to evolve as a reaction before a pressure from the environment.

It will be determined by the universal spontaneous tendency towards equilibrium. Now consider a living thermodynamic system, for example a bacterium. The Complete Book Of Running Fixx Pdf Printer.

As the bacterium is exposed to 50° C, she will respond through many spontaneous mechanisms for defending herself from the hostile variation in her environment to continue being alive. One of them is by adopting a macrostate denominated spore; another way consists of a biochemical adaptation to that condition by producing proteins that will help her to tolerate higher temperatures. Another trajectory will be by trying to elude the area where the pressure takes place, etc. As we can see, the living thermodynamic systems also bear the spontaneous tendency towards equilibrium, but they can block the tendency by longer periods than inert thermodynamic systems can, because the inert beings permits without restraint the spontaneous increase of its available microstates. We can see a Biological order in every organism in the world, and we can find levels of organization from the atoms to the largest living thing. The atoms are organized to form molecules, the molecules to form cells, the cells to form tissues, the tissues to form organs, the organs to form apparatuses and systems, and these form the whole called an organism, a group of individuals that share the same genetic characteristics (of one species) forms a population, a group of different populations forms a community, the communities interact with their environment to constitute an Ecosystem, the sum of all ecosystems and communities on Earth is the Biosphere.

The biosphere is the largest level of organization in biology. Proteins constitute more than the 50% of cells' solid matter. Proteins are the more complex and functionally more versatile among biomolecules, as for cell composition, because proteins form structures like membranes, micro fibers, skeletons, cilia, flagellums, etc., as for functions like storage of energy, transportation of other substances, signaling, protection, hormonal functions, etc. Download Hide My Ip License Keygen - Free Download And Torrent 2016 there. Proteins also are a critical part of all metabolic processes because they work as enzymes, which are proteins that selectively accelerate or slow down chemical reactions. The internal environment of the cells should be maintained in a quasi-stable state because the capture energy and its biotransfer are highly specific. If the internal environment of the cell remained unprotected, e.g., when the cell membrane or the cell wall rips open, the cell dies immediately because the compounds disaggregate into the external medium being separated from other biomolecules with which they interact.

Besides, many biomolecules change or lose their biotic properties and their organization when remaining exposed to the action of the environmental factors or under unstable conditions. All cells have biomembranes that segregate their internal environment from the surroundings. Bacteria have a single membrane and a peripheral wall made of peptidoglycan (proteins + oligosaccharides). Both structures, the membrane and the wall, enclose the cytosol. Some bacteria have an outer single membrane, a transitional wall and an external single membrane.

All eukaryotic cells own an external bilayered phospholipidic membrane. The eukaryotic plant cells own the bilayered phospholipidic membrane and an outer cell wall made of cellulose. The plasma membrane is constituted by a phospholipidic bi-layer with proteins incrusted through it from outside to inside. Imagine the cell's plasma membrane as an avocado sandwich, in which the two slices of bread are the 'heads' ( hydrophilic ) of the phospholipidic bi-layer, and the avocado represents the 'tails' ( hydrophobic ) of the phospholipidic bi-layer, one layer is fixed to the other by the tails. To complete our sandwich, we insert olives from one side to another, and some fragments of toothpick incrusted in the upper slice and other fragments in the lower slice.

Olives represent important protein membrane structures identified as permeases. In a star like our Sun, one proton of Hydrogen (mass 1) fuses with another proton of Hydrogen that decays to a neutron creating a nucleus of Deuterium (mass 2). Deuterium possesses one proton and one neutron. Deuterium is one of the nuclei most abundant in a star. When another neutron fuses to a nucleus of Deuterium, the new nucleus will have one proton and two neutrons and it is known as Tritium (mass 3).

By this process, the nuclear fusion in the star continues to form Helium, Calcium, Carbon, Oxygen, Iron, etc. However, the heavier elements are not created in young stars, like our Sun, but in the oldest stars that explode like supernovas.