Preface
This work is devoted to the energetic evolution of the Earth — a long-term process in which solar energy was transformed, accumulated, and preserved in minerals, organic molecules, and living systems, ultimately forming the foundation for the emergence of a natural carrier of human-type intelligence. By considering the development of the planet as an integral energetic process, we can trace the internal logic behind the emergence of photosynthesis, the formation of carbohydrate and lipid metabolism, and the transition of organisms toward thermoregulation and complex neural activity.
The purpose of this book is to present a systemic model demonstrating how the increasing complexity of biological structures was accompanied by transformations in energy storage mechanisms and led to the formation of the modern biosphere. This approach integrates data from geology, biochemistry, evolutionary biology, and geophysics, emphasizing that the development of matter and its energetic mechanisms constitutes a fundamental driving force of evolutionary processes.
Table of Contents
Introduction
Conceptual Foundations of Energetic Evolution
Formation of the Mineral World
Emergence of Photosynthesis
The Glucose Biochemical Revolution
Lipid Energy Accumulation
Evolution of Complex Organisms
Endothermy and the Nervous System
Geophysics of Organic Matter
Conclusion
Research Perspectives
1. Introduction
The energetic evolution of the Earth represents a continuous process of energy transformation, accumulation, and redistribution that determines the development of geological structures, chemical cycles, and biological systems. This book examines a sequence of key transitions — from mineralogical processes in the early lithosphere to the formation of high-energy lipid structures and complex neural networks in living organisms.
The primary objective of this study is to construct a model that unifies geological, biochemical, and biophysical levels into a single energetic dynamic. Such a model allows the progressive complexity of the biosphere to be described as the result of increasing efficiency in energy accumulation and utilization by living systems.
2. Conceptual Foundations of Structural and Energetic Evolution
The evolution of the material world is based on the transition of free energy into stable material structures in order to normalize the distribution of potentials of the Unified Force Field (UFF). By normalization of the UFF, we mean the coordination of emerging structural levels with existing energetic and geometric constraints of the Field, ensuring stability, predictability of behavior, and integration into the overall system of energetic evolution.
The Return of Singularity refers to the process of normalized redistribution of UFF potentials, whereby emerging structures tend toward states of minimal entropy and maximal stability within existing constraints. In this interpretation, Singularity is not a momentary cosmological point, but a universal limiting principle of matter–energy organization toward which all developing systems gravitate.
These regularities manifest across all scales:
cosmological — gravitational instabilities of the early Universe formed galaxies, stars, and planets as large-scale energy-accumulating structures;
geological — minerals and chemical complexes fixed energy within stable crystalline lattices;
biochemical — photosynthetic molecules and metabolic pathways converted solar energy into chemical substrates;
biological — lipids provided high-density energy storage, while biomolecular networks formed channels for directed energy transfer;
neurobiological — neural networks evolved as energetically costly but functionally powerful information–energy structures.
Thus, energetic evolution and UFF normalization ensure the sequential increase in stability, functionality, and complexity of emerging systems, guiding them toward states consistent with the existential potentials of the Singularity and their normalized distribution.
3. Formation of the Mineral World
Material evolution of the planet began with gradual cooling and crust formation processes. The transition from molten states to stable solid structures created the possibility for energy concentration in mineral phases. Crystalline lattices of silicates and oxides possess high heat capacity, chemical stability, and the ability to retain thermal energy, participating in the redistribution of lithospheric heat flows. Their thermodynamic properties determined the stability of early geochemical cycles, reaction rates, and sedimentary formation processes.
Against this background, the first stable chemical environments emerged in which self-sustaining reactions could occur. Within the framework of energetic evolution, such reaction zones are considered potential foundations for protolife systems, including the hypothetical Last Universal Common Ancestor (LUCA). These life forms could arise from local energy gradients generated by mineral structures and hydrothermal flows.
After stabilization of the Earth’s crust and reduction of tectonic intensity, conditions formed under which regularly incoming solar energy could be stored long-term within mineral systems. Hydrological cycles — evaporation, condensation, and surface runoff — ensured elemental transport, mineralization zones, sedimentary layers, and crystalline massifs.
Minerals with high heat capacity and phase-transition potential played a significant role in heat accumulation and creation of stable reaction microenvironments. Water acted as a universal catalyst and transporter, maintaining continuous physicochemical dynamics upon which early photochemical reactions and organomineral complexes could emerge.
4. Emergence of Photosynthesis
Chlorophyll belongs to the class of porphyrin molecules — photosensitive macrostructures capable of capturing photon energy and converting it into chemical form. The formation of porphyrins is considered one of the key events of early biochemical evolution. In aquatic ecosystems, progressive complexity of organomineral structures created conditions for the emergence of photosystem precursors.
The appearance of chlorophyll enabled the formation of a stable mechanism for converting solar energy into chemical bonds. Photosynthesis became an energetic turning point in Earth’s history: carbon dioxide and water were converted into carbohydrates, while molecular oxygen began accumulating in the atmosphere. Glucose synthesized by phototrophic organisms became the primary energetic substrate and defined subsequent biochemical evolution of cells.
5. The Glucose Biochemical Revolution
Glycolysis is one of the most ancient and universal metabolic pathways, present across all domains of life. Its ubiquity indicates that glucose metabolism emerged at early stages of biochemical evolution, when Earth’s conditions were predominantly anaerobic.
A key feature of glycolysis is its independence from oxygen, allowing effective operation in both anaerobic and aerobic environments. This universality made it a fundamental energetic mechanism enabling survival and adaptation of early cellular systems across diverse environments, including neuronal cells in later organisms.
Glucose became the first universal energetic substrate enabling cells to form stable electrochemical chains and generate energy in the form of proton gradients and phosphate bonds. This organization of energy metabolism provided a reliable platform for essential cellular processes — macromolecule synthesis, membrane potential maintenance, and intracellular regulation.
The emergence of phototrophs and cyanobacterial activity contributed to the gradual increase of atmospheric oxygen, preparing conditions for aerobic respiration — a highly efficient glucose oxidation pathway with significantly greater energetic yield than anaerobic glycolysis. Aerobic metabolism became the foundation for cellular complexity, mitochondrial development, and multi-component metabolic networks.
Thus, the glucose biochemical revolution constituted a pivotal stage of biospheric energetic evolution, establishing prerequisites for organisms with high metabolic activity, complex trophic interactions, and expanded biological diversity.
6. Lipid Energy Accumulation
Triglycerides contain long hydrocarbon chains and exhibit a high degree of reduction, providing substantially higher energy density than carbohydrates — approximately 9 kcal per gram compared to roughly 4 kcal per gram for glucose. This high energy density makes lipids one of the most efficient biological mechanisms for long-term energy storage.
The emergence of biochemical pathways for triglyceride synthesis and accumulation marked a new energetic leap in evolution. Plants were among the first to form long-term lipid reserves, concentrating them in seeds.
Seasonal climate variation and periodic desiccation of water bodies created fluctuating stress conditions, stimulating the emergence of terrestrial plant forms. In such environments, algal consortia adapted to shallowing and dehydration, gradually differentiating into specialized structures — roots, stems, and chlorophyll-containing leaves.
This strategy allowed accumulation of energy necessary for rapid germination, competition for light, and establishment in more productive landscapes. Lipid seed reserves became a powerful driver of new trophic interactions in aquatic and coastal ecosystems.
Organisms capable of efficient lipid synthesis and utilization gained significant evolutionary advantages related to energy stability, prolonged activity, and development of more complex behaviors. This led to increasing complexity of aquatic communities, emergence of specialized food chains, and formation of conditions favorable for multicellular life.
7. Evolution of Complex Organisms
High-energy lipids created conditions for evolutionary transition from primitive life forms to organisms capable of sustained movement, active behavior, and specialized tissues. Competition in aquatic ecosystems intensified in areas of seasonal seed accumulation, lipid microstructures, and other organic resources. Periodically shallow or fragmented water bodies formed zones of high nutrient density. These localized energetic “nodes” generated strong evolutionary pressures, favoring mechanisms for lipid detection and directed movement.
The emergence of primary sensory organs — primitive chemoreceptors, mechanosensitive cells, and light-sensitive elements — was a key step toward directed behavior. In parallel, mobility mechanisms became more complex as cellular consortia formed coordinated contractile systems, representing prototypes of future muscle tissue. Such early contractile structures, initially observed even in plant systems, evolved through increased actin- and myosin-like protein content, enabling conversion of lipid energy into mechanical work.
This combination of sensory and motor adaptations enabled not only effective resource acquisition but also development of elementary spatial behavior, coordination, and environmental responsiveness. These processes formed the foundation for further morphological complexity.
Subsequently, specialized organs emerged for synthesis of more energy-dense triglyceride forms. In ancestral multicellular organisms, these structures gradually acquired characteristics of future liver systems, responsible for lipid generation, storage, mobilization, and distribution among tissues. Proto-hepatic systems increased energetic autonomy, enabling complex behavior and prolonged locomotor activity.
As competition intensified and aquatic environments became less predictable, some organisms began exploiting terrestrial zones. This transition required more efficient energetic strategies, advanced lipid metabolism, and development of musculoskeletal structures. Evolution of animal triglycerides with longer hydrocarbon chains provided stable energy for sustained locomotion, territorial behavior, and early social organization.
Collectively, these processes prepared the emergence of the first terrestrial animals and further biospheric complexity.
8. Endothermy and the Nervous System
Endothermy represents one of the most significant evolutionary transitions associated with the emergence of active thermoregulation mechanisms and stabilization of internal body temperature. Unlike poikilothermic organisms, whose body temperature depends on environmental conditions, endothermic animals maintain relatively constant thermal regimes, enabling high biochemical reaction rates across broad environmental ranges.
From a thermodynamic perspective, endothermy constitutes a transition from passive thermal equilibrium to active heat production and retention. This became possible through improvements in thermal insulation and metabolic intensity.
9. Geophysics of Organic Matter
Organic deposits — oil, gas, and coal — represent substantial reservoirs of chemical energy accumulated by ancient biosystems. These materials play important roles in sedimentary basin history, thermal evolution, and hydrocarbon accumulation zones.
Contemporary studies indicate that organic matter can participate in formation of local electrical and electrochemical potentials in geological formations, particularly under elevated temperatures and pressures. These processes are studied via geoelectrical methods and manifest as changes in conductivity, polarizability, and charge characteristics of sedimentary layers.
The influence of organic reservoirs on Earth’s global magnetic field remains hypothetical and is not supported by existing geodynamo models. The primary source of the planet’s magnetic field is considered to be motion of electrically conductive liquid iron in the outer core. However, local geoelectrical phenomena associated with organic deposits may significantly influence regional electromagnetic properties of the crust and require further investigation using advanced geoelectrical modeling techniques.
10. Conclusion
Increasing biospheric complexity aligns with the general trend of rising energy density in biological energy carriers. Evolution can be understood as a transition from low-energy dissipative structures to highly ordered systems utilizing increasingly concentrated energy sources.
Minerals, photosynthesis, glucose, and triglycerides represent four fundamental stages of energetic evolution, each accompanied by growth in biological and geochemical complexity. Development of lipid energetics formed the basis for endothermy, complex behavior, and high-level nervous systems.
Organic reservoirs continue to play roles in geophysical processes, linking the biosphere and lithosphere into a unified energetic system. Evolution of matter on Earth may thus be interpreted as an energetic process in which increasing efficiency of energy accumulation and utilization serves as the key driver of biological and geological complexity.
11. Research Perspectives
Despite the coherence of the energetic model, several directions require further investigation:
Mineral endothermic systems of early Earth. Refinement of thermodynamic parameters of primary crust minerals and their long-term energy storage capacity is required to better assess contributions to early planetary energy balance.
Mechanisms of porphyrin structure emergence. Investigation of abiotic synthesis conditions for photosensitive molecules and formation pathways of primary photosystems is necessary.
Evolution of lipid chains and energetic optimization. Lipids play critical roles in endothermy, brain function, immune responses, and stress adaptation; expanded research into lipid metabolomes, evolutionary transitions, and optimal energetic configurations is required.
Geophysical effects of organic deposits. Investigation of hydrocarbon reservoir influence on electromagnetic and conductive processes in the crust using modern geoelectrical techniques is important.
Energetic evolution and origin of cognitive systems. High energetic costs of neural activity imply deep relationships between energetic substrates, metabolic pathways, and development of complex behavior.
Integration of energetic models into climate forecasting. Enhanced understanding of biospheric energy cycles is essential for improving long-term climate models, particularly under increasing anthropogenic pressure.
PS. Sponges (C10–C14) → Worms (C14–C16) → Arthropods (C16–C18) → Fish (C16–C20) → Reptiles (C18–C20) → Birds (C18–C22) → Mammals (C18–C22) → Bats (С22-C24)
Energetic Leaders by Triglyceride Chain Length
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Quail — C22
(maximum energy density per unit body mass; rapid mobilization for explosive flight) -
Cheetah — C22
(peak power delivery; triglycerides optimized for extreme, short-duration muscular output) -
Bat — C24
(maximum functional chain length; highest level of integration with flight, thermoregulation, and neural activity)
Triglycerides characteristic of quail (C22) and bats (C24) are particularly valuable for human immunogenesis and energetics due to their high energy density, long-chain structure, and compatibility with immune cell membranes and their signaling requirements.
