Integrating CAx with the Chemical Synthesis for Chemical Printer Architecting in Additive Manufacturing with Logic in Materials

doi:10.21203/rs.3.rs-3240050/v1

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Integrating CAx with the Chemical Synthesis for Chemical Printer Architecting in Additive Manufacturing with Logic in Materials

https://doi.org/10.21203/rs.3.rs-3240050/v1

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This study proposal presents a hybrid and gradual method for biologic artificialization, engineering its fundamental structure with 3D printing, conferring incremental intelligence on its superficial and deep areas for its control to classify and mimic genetic events over organic or hybrid materials. Thus, functionalized computational blocks to be used as a mechanical computer, driving materials through its most fundamental state material as computing. The route for this research is the mechanical synthesis of material computation architecture drives through quantum control in their fundamental structure using particle computational logic integration to drive molecular structures. This research aims to include the precision techniques of mechanical engineering in the biosciences, i.e., metrology and anthropometry through biometrology, to measure genetic particle components to obtain patterns, through quantum digitization to generate complex mechanical, chemical, and hybrid syntheses in the state-of-the-art for biological circuit process control. It was concluded that cutting-edge CAx intelligence for material sciences can use chemical synthesis artificially for computerizing materials for additive manufacturing.

Biotechnology and Bioengineering

Mechanical Engineering

Nanoscience

Matrix Biology

hybrid additive manufacturing

logic particles

prototyping

mechanical computing

3D chemical printer

This paper is not looking for interfaces between complex systems, but the integration, considering the biological materials as mechanical computers to properly mechanize artificial biology, aggregating a general overview of computer-aided technologies (CAx) targeting the addictive technologies with a focus on the general integration. This work is an attempt to light aporias to evidence some gaps, which were target the mechanical syntheses controlled with quantum logic to drive particles properly and mimic synthetic biology mechanically. Indeed, formulating a material architecture for synthetic biology and its proper quantum mechanization is the greatest challenge. The proposal is to formulate a new architecture to control and mimic tissues mechanically for proper human body advancements, such as to generate engineering vascularization in materials to a high-level in fluidic and electric cell control, as well as its connection map and tissues intermittent regeneration with new technologies, such as logic-controlled particles to increment and mimic intelligence in organic and hybrid materials, i.e., using its superficial and deep area for complex hybrid scaffolds, functionalized to hold embryonic cells and all skills in tissue engineering through logic and database quantum computing particle modulation control. Interfacing and integrating the particles and modulating atoms logically to mirror the material deep state shaping the mechanical computer as the own biologic materials to control genes is the great target in this search. One of the purposes of this study is to focus on the paths for long-term maintenance of human vital signs in space through mechanical synthesis, and to comprehend biology as a mechanical computer specifically using quantum CAx.

This study attempts to classify potential theories and possibilities over artificial human tissues using quantum mechanization into tissue engineering around its specific possibilities, as some important studies perspectives, [32], [33], [34], [38]. Therefore, to generate a possible algorithm logic transcription between particles, using dense control data with cutting-edge in IT, [43] but using quantum computational processors, as a science control to current knowledge about particles, molecules, and the genes dynamic mechanisms. The purpose of atomic fabrication is to use top-down and bottom-up particle control processes to assemble molecules. Then, a question arose: what if its processes investigated genes with the automatic mapping of biophysical-chemical affinities between molecules, subparticles, photons, and the energetic logic of the involved molecular particles organized through pattern maps? In addition to the technical doubts, the conceptual question is also an actuality, starting with the simple title of how to call this challenge to keep human beings first generation in space. Some proposals could be through material mechanization and possible complex artificial human biology, a high-level of hybridization of synthetic biomaterials, advanced tissue architecture, tissue engineering as intelligent scaffolds, and even architecting procedures in hybrid integrated circuits (IC) for organic engineering advancing proper artificial human evolution. Through an investigation route of the biological components, using quantum, chromodynamics, mapping the connection forces between genetic particles, subparticles, and their measures, cataloguing the biological gene resistance, configuring complex molecular modulations and synthesis through quantum computing with the database (DB) to reach a biological complex architecture, and trying to keep human vital signs for each specialized tissue active in the hostile space environment. Space access technologies are vital, but for colonization, they are different, they involve engineering.

Indeed, to fill the damaged place using implants and artificial blood, components are supplied to regenerate tissues through stem cells and prevent organisms from rejecting the new complex artificialization. Overall, biotechnology and tissue engineering, as challenges, have tools to alter and edit genes [29] and have been boosted with bio data for quantum computing. Thus, the biotechnological additions to the body turn naturally accepted, it is all about mastering the chemistry enhanced to modern computing and complex modulations for particle logic controls. Since 1900, chemical have been visualized as a pharmacological solution for diseases, e.g., the company MSD™, forming dense pharmaceutical knowhow for 130 years, as presented in its famous technical manual collection. Around 1930, the question was whether chemistry could cure diseases, such as those caused by bacteria, so Dr. Domagk created the first purely functional chemical preparation named sulfonamide and Prontosil, [6], [7]. In the 1980s, the question was whether chemistry would allow a complete chromosome structure comprehension and reading its synthesis; then, the human genome project was initialized by the US government around 1988 and followed by Doctor Venter, [5]. Questions about chemical potential yet such as the formulation of molecules mirrored with quantum computing aids, e.g., obtaining the simplest molecules, and simulating each to be modulated and manufactured artificially. This is followed by standardizing the production, controlling the synthetic chromosomes, and whether it is possible to initialize, interface, integrate and connect them with natural biology. Considering the natural computing pattern, guided through quantum computational machines, advanced modulation particles in its logic control draw the structures. Questions to be addressed are how the DNA particles communicate logically, focusing their binding energies on the interface with the modern programming logic discipline [31], for gene particle patterns using quantum dot logic simulators, in the fundamental state of the materials, and the nano-mapping. An architecture to generate functional blocks and clusters, mimicking the gene events to generate programming science control using quantum IT integration, basically as an advanced dot quantum IC architecture designed through CAx. The consolidation of biotechnology and genetic editing has been considered in this study, and the interfaces are involved computationally [24]. Tissue engineering using sophisticated scaffolds and synthetic biological pieces indicates this path [11], [12], [13]. This research will also attempt to discuss fundamental concepts and norms to specify artificial human tissues and organs in deep architecture technologies, and strategies [39], [40], [79], in which scaffolds and tissue mineralization can usually be printed mechanically and already vascularized with functionalized materials added to the artificial biological inputs, including potential advances in this issue, [37], also considering the concept of material as a mechanical computer [76]. This research study tries to make artificial human biology viable by mapping physicochemical affinities between gene particles in its interfacial force field and mapping the nanotopography in tissues, its internal biocircuits and all biomolecular mechanisms. Indeed, these mosaics provide the possibility of saving lives across the space colonization emerging industry. Finally, on ethical issues, there is a paradigm between the price of saving lives in space or preserving natural biology.

The methodology consists of generating a hybrid nanomanufacturing that absorbs engineering and physicochemical processes to assemble and modulate fundamental state particles, to its proper logical control from its fundamental state, mirroring and mimicking organic molecules, constructing artificially organic structures, using the bio-IC architecture with CAx, to a set of methods forming the general cluster. Conceptualizing included the field of biological anthropometry to standardize genes, events, particles, and their fundamental energies of matter for proper mimicry, following the map of logical particles and their controls, giving measurements to the biological particle’s components mechanized. This research will present whether it is possible to generate an analysis route, physical-chemical, mapping processes by affinities between particles in the organic molecule mechanisms. The method of this theoretical study includes bio-interaction mapping between particle physics and biophotons in this research route, because the control material structure is a logic computing question, such as in computer-aided engineering (CAE) analysis, but densely below the fundamental state of materials using a modern CAx quantum. It is possible to obtain some result in a mapping tool for programming a possible gene particle logic to identify events that trigger and use the vital weak and strong physical-chemical forces to identify proper patterns in the DNA particles to mimic with its own ID number for a proper bio-IC architecture. The biology does not have a fixed symmetry at the anthropometry and metrological concepts, but if it were mapped the same stretch in different DNAs with their measured values, a good pattern approximation can be reached. With values measured in different ways the genes on physical-chemical interactions, particle sizes, molecules, forces, routes, connections, events, and from these analyses with averages, is aimed a possible DNA's anthropometric mechanical pattern reachable. With this nanometrological method a global formulation effort is intended to measure genes, as a bio-anthropometry for the gene particles, in its energetic forces, sizes, processes, logic and each event in the gene chain, forming a technical organized matrix through controlled quantum computing. Following this route, the study focuses on patterns in the physical-chemical affinities of strong and weak bonds, on specific asymptotic freedom [7], or using quantum chromodynamics, driven by quantum computing, considering the concepts of field and particle theories. In human skin, the cells are born, grow, age, die, pass from the dermis to the epidermis and finally come off, giving space to new cells, a process well known as skin cell renewal, as well as replacement regeneration and repair. In DNA, something similar occurs, in which gene component particles fulfil their functions and then are discarded, giving way to new ones, using energy from food to be generated. Similar to embryonic cells, such as induced pluripotent stem cells (iPSCs) for scaffolds, this whole process is already well known in the skin as cell repositioning or the cell life cycle, in gene formation to reposition. Particle logic, which has much to do with quantum computing from dense databases, follows what is known as the particle gene life cycle and repositioning cycle. With the methodology to map this logic process, particles and molecules are replaced, focusing on DNA mapping affinities to mechanize the chemical process. The physical-chemical mapping, connections, and the measurement of their associations from different forces, as a suggested method, and the genetics measures for all its components below the nanoscales, because if have measurements, have the knowledge. Allocating an ID number and a datasheet in each gene particle to its proper technical specification [3], each trigger fires together or individually as a complex bio-anthropometry, as one of the tools to modulate gene particles. Considering the science of control for particle position in the gene structure, we allocate the particles as objects in quantum computation, for advanced mechanical synthesis and then mimic them to computer-aided technology (CAx) systems, reproducing them in complex and technological hybrid nanomanufacturing.

How many parts are on an airplane, a complex machine, i.e., a lithography machine, in which each part is identified with an ID number, datasheet, drawings, and technical specification description, in advanced material management which requires big data management [67] something similar is expected to be done in artificial genes to form controlled modules for proper biologic mechanization and control procedures. Something, like assembling puzzles, in which pieces need to be found or created, and each one is a complex question to be answered before putting it into its final place. This mechanical engineering confers to material quantum cyberization of the logic with a dense hybrid IC architecture, dot quantum procedures to generate a programming of materials modulation system, such as a CAx with interfaces between materials, as a genetical logic particles pattern, as part of the methodology advocated in this research. With these readings, map, digitize and mechanize the cells and complex processes, packaging gene modules controlled in high-density clusters, in addition to describing the processes by engineering flowcharts and simulating them in biological circuit generation [27]. Focusing on the nanomapping of organic processes and engineering flowcharts [28], following high dimensional precision, mechanical techniques include particle dynamics. To map the binding forces between gene particles to formulate tools for proper advancement in human artificial tissues and the formation of complex artificial organs, mapping the possibility of mechanizing and mimicry and generating a particle logic study field at the control level is expected. The most complex physical-chemical syntheses with prolonged stable chaining would have all their interface and particle logic mapped molecules. Through a progressive increase in complexity from the simplest to long-chained molecules, it could then be simulated virtually through quantum computing processing for chemical syntheses controlled using physical interfaces, such as reactors, nanocircuits, electric and fluidic, nanochannels, lab-on-a-chip, and valve logic, as in the electronic circuits, everything done in hybrid nanomanufacturing scales, i.e., processes such as the first Haber-Bosh chemical/mechanical equipment to synthetize ammonia molecules, but highly modernized with the last cutting-edge nanomanufacturing technologies. A configured method to synthesize and control complex long-chain molecules, in its entire fundamental process can be represented in engineering flowcharts, with values and measurements. The summed set formulating the real possibility to generate hybrid nanomanufacturing to process atoms, molecules, and its connections between particles to their due mimicry, and precise CAx for mechanical and chemical syntheses. Genetic editing with this complementary engineering process would gain dimensional symmetry, for which this organic molecule in which DNA mechanization can bring accuracy control and mastery over gene stretches. As a step towards artificial devices, editing using integrations that can expand human capacities, such as nanosensors, assists in improving analytical instrumentations in gene controls to better comprehend the rejection of new technologies.

There is no way to colonize space properly with the current medicine or just the actual technologies for which this research will try to discuss, a dense hybrid alternative, based on artificial human tissues progress and the particles logic controls that with the genes binding forces between particles, then map for its proper controls. Some possibilities, such as biologic mechanization for expanse the senses, human skin artificial protection from space ultraviolet waves, telepathic communication, and the elimination of body hair, organs, tissues, and body parts to replacements or artificial substitutions [1]. A purpose is to mimic the material structure through its deep architectural forces between particles in the atoms, using engineering techniques and map methods to control the processes and logic of the particles, fuzzy or Boolean, [60], [68], as well as computational nanotechnology in the DNA [3] boosted with quantum computing. Everything concentrated in nanomanufacturing includes top-down and bottom-up mechanical synthesis to modulate and assemble molecules to their due stabilization and subassemblies through modulation guided by the CAx using quantum computing processors to hit the fundamental state of materials. Artificial human biology without limitations through quantum computation in a mechanical synthesis approach guides biomechanical mimicry controls, and mapping biological mechanisms in conjunction with interface systems, e.g., lab-on-a-chip [2], and artificial biological reproduction or original until stabilization [77], regarding organ production following the CAx original genes and organic molecule digitalization, duly mapped microfluidic circuits. The connection and interaction forces between particle mapping, together with dense data computation are the basis for particle logic. If there is dominance in gene mimicry gene fabrication controlling the energies and forces between particles, including technologies to protect human tissues from ultraviolet light, could be useful for colonization on Mars, [64]. In nanotechnology, the term respirocytes [9], [10], [46] refers to hypothetical cells with the function of acting as an artificial oxygenation agent. The human skin is a middle superficial area with intelligence, in which the cells are programmed by DNA, similar to the computronium theories, [25] or mechanical computerization [76]. In addition to artificial nutrition, hydration, environmental control, and oxygenation technologies to keep tissues alive, something sophisticated at the level of implantable natural spacesuits, considering integration, not just interfaces. There is also the term biological artificial defense system simulating IgG, IgE, IgD, IgM, IgA, [47], [48]. This study means a high booster between a symbiotic artificialization relationship of the human tissues body by its natural systems control in all its cutting-edge and interfacial technologies, allocated in dense information blocks to the engineering flowcharts.

This research is partly a highly modernized attempt to update the Oparin and Haldane hypothesis, simulated by Stanley L. Miller and Harold C. Urey, 1953 in the USA [22], to simulate complex long-chain syntheses in organic chemistry, considering the origin of life studies, [2]. After digitally mapping the chemical interactions between their particles and biotechnological organic events, part of the conceptual methodology would be to apply this information in different applications, including the Oparin technique for dense organic chemistry modernized with particle science technologies, to simulate chemical bonds in all connections between one another. In addition, a computer interface was used for measurements and calculations, and mechanical and process engineering techniques were used to mimic and control events. The general control processes of chemical affinities between particles such as analytical and advanced science control hybridized with the technologies presented in this study, are an attempt to generate a nanomanufacturing cutting-edge procedure with microspecialized (µ) and nanosized (n) machines, including microreactors with physical electrical reactions to manufacture long-chain molecules, reaching homochirality and self-multiplication, e.g., creating artificial gene stretch, following natural triphosphate structures, considering the last concepts presented by Steven A. Benner, [2]. Complemented with logical diagrams to accuracy processes responsible for oxygenating, nourishing, and uniting living cells with the appropriate combinations [55], [56], [57], with focus on space [58]. “It is a mathematical question in which the set of these technologies tries to formulate the nanofabrication for the accurate chemical liquid, gaseous, mechanical, and hybrid synthesis of stabilized or reactive large-chain molecules. Everything is a matter of time control to manufacture the artificial molecules through bio-mechanical synthesis and modulate logically atom states, that is, the artificial traditional chemical synthesis has its time, mechanical and hybrid synthesis would tend to accelerate the process, until molecular stabilization for the equilibrium of large-chain molecules.” In this control, biotechnological processes through high-level computing and engineering flowcharts can have the splendid interface for biological circuits and unify all the logic particles in condensed packages. Conceptually, drawing material structures is the same as drawing molecules, then following engineering procedures, CAx technologies and quantum models are used to draw complex molecular structures through quantum modulation instructions and control their behaviour computationally. Through this set, we sought unification in nanomanufacturing for the domain of living organic biological processes artificially, forming the dominant patterns in the clusters and concatenating them with this mapping, further enriching the artificial genetic edition with modernized mechanical engineering.

Over the centuries, research in organic chemistry has brought excellent results in artificial organic syntheses, such as synthetic ammonia, urea, and many other complex syntheses [36]. In addition to attempts to recreate the soup of pre-biotic life, i.e., the Oparin and Miller process [19], but now boosted with mechanical procedures, digital and quantum control to condense high volume data, these concepts have great potential if modernized with the current processing of ultra-dense data systems, combined with particle sciences, quantum chromodynamics, and nanomanufacturing processes absorbing all. These experiments in space as clusters, using advanced devices, such as lab-on-a-chip for synthesis to molecules simulation, and production of artificial tissues, nourishing the stem cells system for analytical studies. Along with modern techniques using quantum logic capacity professors to control and draw instructions for molecular architecting, as well as lab-on-a-chip, µnano-fluidics and biocircuit architectures, there has been growth in essential procedures to collaborate the logic communication between particles, atoms, and the energy involved in the weak and strong chemical interactions. This information is used to feed digital simulations as automated sequencers, machines developed for decades, [63], functioning with a focus on the fields of energy and asymptotic freedom, [8], in general, quantum chromodynamics between component particles. The next step would be mapping all the field physics and binding energies between the gene particles to generate integrative machine control. Therefore, this is vital to retrieve and modernize Miller's studies [21], [22], and update modern research based on the evolution of species [20], cataloguing the activators that cause changes in genes to simulate these procedures with organic chemistry techniques mechanically. Therein, advanced updates should be modernized with cutting-edge sequencers to be part of hybridization to simulate pre-biotic life as a cutting-edge machine. One path in this progress would be to study functional groups by their field strengths in the connections between particles, which involves remarkably complex intense particle logic control, forming specialized and parallel clusters in a precise bioarchitecture as in integrated circuits. Therefore, simulating and integrating all these complex functions for virtual and physical laboratories in miniaturized devices to perform millions of joint analyses on laboratory chips and forming dense clusters that shape processes for gene particle architecture control. With branches connected to reactors, i.e., Oparin/Miller technology, the engineering application techniques in biology, as well as the attempt to mechanize it, are presented in this study as a biologic complement that is less predictable and asymmetric [28] versus predictable symmetric engineering, so unifying both disciplines can enlighten paths such as a booster for the evolution of synthetic biology.

This study believes that the Oparin/Miller principles in organic chemistry around 1953 [21], [22] still have contributions if digitized and updated with the last cutting-edge technologies, but as a hybrid absorber platform, such as the proposed nanomanufacturing for high-level analytics and other modern hybridized technologies [30]. For complex applications to engineering clusters and perform the processes as employ organic chemistry microreactors in lab-on-a-chip, working with autonomous sequencers, the whole process monitored by magnetism, electronic field, nanosensors and quantum logic. The biological circuits [27], wet, dry, organic and hybrid, including the nanotechnology in integrated circuit (IC) architecture, for computer simulations, are interconnected with interfaces operating perfectly. Each device was added or improved to bring more accurate performance and simulations to the system globally. One of the possibilities is the generation of artificial organic parts designed to act as a logical architecture to simulate the actual functions, events, and µfluids that mimic the observed tissue cell, but an interface with nanoelectronics through quantum computer logics and similar circuits. This set of discipline technologies works below the micro (µ) and nano (n) sizes, presenting itself as complex feeder data to manufacturing processes at the nanotechnological level, a factory operating at the particle, molecule, and atom sizes. Hybrid nanomanufacturing, includes a set of specialized processes, such as single-electron transistor, multiplexed bioarray 3D phase change memory, chemical synthesis, beam milling, AFN printing, surface mapping, spectroscopy, quantum forces, nanoparticles-based, nanomask, bulk system molecules, lithography, coating, biophotons, and spectrum field. These technologies form a high-level of cutting-edge technologies for gene automated sequencers to reach state-of-the-art in manufacturing molecular memory, biomimicry nanosensors, and genetic particle logic control.

The question is to find the natural irregularities and asymmetry versus regularity and symmetry in engineering to reach DNA anthropometry to mechanize the natural biology. In addition to the biological components with ID numbers in datasheets [3], engineering must contribute to biology with norms and classifications for advances in human synthetic tissues. The biosciences have their own standardization, classification, and parts identification dynamics, e.g., pMIG PAC for the genes and other described patterns, controls, or transcription procedures, [44], which are largely unreadable for other disciplines, such as for engineers and programmers, as there is hard to be a common language. Although biology remains highly asymmetric, irregular, and difficult to standardize or mechanize, it is possible to find a middle ground with high precision with engineering and metrology techniques, something like anthropometric biological analysis or DNA anthropometry [73], [74]. Moore's law, on the other hand, was also an industrial groundwork forecast based on the time of emerging technologies under study, such as nanotechnology and modern lithography machine advances. A graph for estimating the length of time the humans spend in space, based on new technologies, can also formulate a law to be followed, as a scientific industrial planning, estimating values plotted in the chart I and chart II, to formulate a first draft for a law that follows the increase permanence time of humans into space in relation to the paths to achieve.

Nevertheless, the main question of this study is to answer whether it is possible to colonize space with synthetic human biology. The current greatest challenge in space is not space access but paths to keep the first human generation properly in space. This work tries to conceptually model a future world in which deep space exploration will grow at a high level, and all technologies will be welcome to save lives, formulating a scenario for the interfaces and integrations as nanotopography, adding intelligence to drive materials in its deep, surface, and structural substance architecture for advanced organic and hybrid materials.

The challenge to maintaining human permanence in space is the same as keeping them on planets hostile to life. This technological estimation can be made as an industrial planning on modern research cutting-edge study based on concrete evidence to support this possible schedule that is based on the most advanced research in nanomanufacturing for genetics, tissue engineering, modern computing, particle physics and human physiology. Thereon, the programming logic is changed from pixels, bits, and binaries to interfacing qubits to particles, atoms, and molecules to control its genetic architectures. Then, making use of cutting-edge technologies CAx to advance the logic of manipulation particle control, and consequently, for genetic engineering with digitization, is expected, bringing these advances to forced human evolution. With numbers and measurements in science, the procedures are accurate, even in systems with high asymmetry. Due to all this complexity, standardization as part of the cutting-edge mechanical engineering discipline and contributions to biosciences, as an essential step with additional specialized literature and library of new standardized official terms, including nomenclatures to enrich with science the expected bio-architecture evolution for induced human biology.

An evolution in which biology would naturally take millennia to make and over time that of synthetic biology would be something like one generation to another. Artificial developments, such as gills for humans to breathe underwater, echolocation radars, infrared ability to see in the dark, artificial skin protection against ultraviolet light will contribute to space exploration. Evolution in the mind, interfaces with electronic systems included. In the massive list under construction of probable synthetic evolutions [78], among others are echolocation, artificial eye, artificial organs, magnetic sense, controlled human subjectivities, hormone control, suppression keratinocytes to eliminate hair throughout the body, artificial telepathy, density control of soft and hard tissues, UV protection by the skin itself, artificial thermal control to prevent hypothermia, infrared vision, increased hearing and muscles, greater density and neural stimuli, and increased sense of smell. In general, complex machines and their millions of parts working together, such as human body components are the means for achieving adequate synthetic biology. The biggest challenge is to allow these density sets of advanced technologies as a biological booster to be transferred naturally to the next generations. The evolution of species has its times and limits; the human species has not acquired any significant biological adaptation in the last millennia. However, new sciences and advances in synthetic biology will allow forced human evolution to save lives in the new space industry. The minimum basic spectrum of scientific routes for synthetic human biology is presented in image 1. The concept refers to mechanical engineering procedures to absorb data as in machine element designs [69] and particle control [45]. Following scientific accuracy, the past also brings useful information to the most modern technologies, i.e., complex atom synthesis. Additionally, reminiscent of valve-based mechanical computers, the logic used resulted in modern IC architecture. Currently, quantum computational logic follows the fundamental state of matter, and below its fundamental state, in which the binaries will be in both positions at the same time, and all the logic possible with quantum qubits. The connections between qubits interfacing the material structures to modulate atoms are the key to an effective mechanical synthesis of a future quantum CAx in mechanical engineering. With this computational processing power, a large field can be opened to be explored, which is the logic of organic particles and valves, which provide the circulation of fluids for adequate tissue revascularization, as well as the electrical issue that gives bioelectrical control with the proper speed and power of quantum computing logic.

Was shown a discipline descriptive aimed to reach the complex architecture for synthetic human biology procedures. The concept considers the formation of dense specialized gene block events ready to use. Simplifying the classification and blocks to assemble new technologies and improve dense possibilities i.e., gene triggers for artificial human tissues. The objective is to unify biologic disciplines, such as engineering and computing for all speaking the same language, formulating a dense bioarchitecture made up of specialized blocks. Considering it as a possible route for biological advances to be understood by other disciplines in high performance. All to formulate the complex nanomanufacturing, including the auto assembly physical chemical, energy, focusing on the chemical, liquid, gaseous, mechanical or hybrid syntheses, chromatography, controllers and microreactors.

Technically, mechanical engineering is like assembling puzzles in which pieces need to be found or created, and each piece is a complex question to be answered before putting it into its final place, as in the most complex and sophisticated mechanical clockmaker's process - considering that in some way, the nanomanufacturing consists of reducing this conceptual and measured engineering. Indeed, smaller but constant automated biological simulations with analytical block formations and ultra-specialized processes can be assembled to achieve complexities for gene particle construction, simulating the densest chemical affinity organic control. This research aims to artificially carry out chemical syntheses and physical events. Aiming to achieve mechanical syntheses through quantum computer molecular modulation. Unifying a set of tools from bioreactors to chromatography to organic analytics, all unified in blocks to integrate hybrid nanomanufacturing, finalizing the production of stabilized and controlled organic long-chain molecules. An important note that initially consists of progressively nanomanufacturing the organic chemistry to simulate gene stretches, starts working with only two particles in a specific gene for molecular control. After its domain goes to three, until it is possible to keep molecules standing in their original organic stable state and under control to be modelled using CAx, the method consists of assembling atoms in organic chemistry mechanically, focusing on artificial tissue behaviour resistance. Using nanomanufacturing procedures, starting with just one stimulation organic device in space, e.g., performing the synthesis or mapping the force field between two particles, augmenting the entire system with physicochemical analytics devices. After the condensation of these gene stretches and their domain, billions of chemical syntheses are combined in biological communication circuit design to control the clusters.

The method sought is to perform the most complex organic chemical syntheses of molecules, properly stabilize, control the simulations to assemble the organic chemistry processes to form the basis for mechanical syntheses, and map the quantum energies of strong and weak chemical bonds in the functional dynamic’s organic particles with dense computational quantum logic. The biological skin is similar to a computer, where the chip is the gene logic that commands all the processes [76]. Indeed, mimicking this through a dense bio-IC architecture mesh drive with quantum computing is the concept presented starting this biomechanical computer with just two atoms initially to control and dominate its logic and then growing until a stabilized molecule is controlled. This mapping brings the system's comprehension globally, analysing the interconnections between particles to capture high precisely the numbers, as a study on the borders of biological materials. This research tries to formulate a scenario to illuminate the precise limits that tissues support without nutrients, oxygenation, and other supplies to maintain life, bringing more accuracy for engineering and numbers to biosciences with bio-metrology. Conferring accurate values, a way could be formulated to calculate an infinite number of events, thus bringing the symmetry of the engineering to the asymmetry of the biology as a route to control biocomplexity. Accumulating and adding the results to assemble initially a particle logic, listing interfaces in this analytical nanomanufacturing, progressively increasing complexity, until reaching the global DNA mechanism and mapping its energies involved in the boundaries between particles to unify disciplines and feeding the nanomanufacturing, such as a mechanical computer focusing on the mechanical synthesis mirrored with quantum logic. Therefore, mastering these simulations with the genetic edition [15], consequently forms an accurate, practical tool for simulations. The mastery and control of these processes indicate the path to biological mimicry and then the opportunity to construct automated gene assemblers by organic chemical, mechanical synthesis, and complex hybrid syntheses with logic to avoid the rejection of new potential technologies.

The boundaries between the particles of the gene parts that this research tries to investigate as a route for mimicking it by dense blocks to nanomanufacturing procedures presents the gradual path to logically mimic the particles, as in automated chemistry synthesis considering biology as a mechanical computer. Focusing on the force fields that form the particles, as the energy to achieve perfect cells mimicking tissues, organs, and fluids classifications, mapping the field energy and particle physics until reaching the control stage of the global system, mimicking the particles to work in harmony as in the natural state. Following the tissue engineering advances in parts at these stages [14], this section of the study defends engineering standards to bioscience studies. The automata are in different conditions, even if there is a significant change in mentality, such as the connection with quantum artificial intelligence. Biological mechanization is vital in technical standards for logic control, measurements, codes, and calculations for greater biological accuracy. Additionally, it is a parameter to technically establish a scope with clear definitions that go through logical sieves until its conclusion and validation. At this stage, three questions will form the basis of the sieve to define whether a person has artificial biologic technologies, patterns, and a conclusive question, as follows:

Did the living natural body undergo, receive, or have invasive changes that added or expanded some natural capacity?
Does the body have any editing in the genes, DNA / RNA that suppressed or added any artificial biological capacity?
Has the living human body undergone any successfully induced mimicry or forced evolution as an artificial complex organ?
Then, the vital question that can conclude whether the person is or have some artificial biologic technology in their own body:
If some unnatural capacity can be transferred to the new generation, biologically, transferable to new human births, this feat will be unquestionable and indistinguishable, proving human artificial biology or artificial evolution.

Constructing a fast checklist to measure the artificial biology progress.

If any of these test’s / questions are positive, is possible to say that the person has some artificial biology; therefore, if a person suffered any synthetic biologic change. There will be few limitations for this progress, whether in the mind, vision, tissues, or fluids, and in the strength, the whole biologic global system body can undergo some change to increase the biology resistance to space induced for human biologic artificialization, as a biocomputer.

The classification and listing of human subjectivities [4], revealed the behaviour of logical particle interfaces, e.g., mimicry of biological motor proteins [59] and logical data manipulation [60], [61], [62], presenting tools to be evaluated for evolution in deep tissue engineering. With these technologies, questions arise as to whether human subjectivities can be suppressed entirely from the human body through genetic editing as an advantage to human beings over long distances in space and logical progress, and computer science has advanced virtual human interface controls. The new frontier of these machines is the human emotional intelligence to be programmed in the bio-machines, simulated before in biocircuits [27], including ceramic materials, technologies that can mimic the hypothalamus, [75] and generate computational interfaces and integration, electrical and digital in the brain [51], [52]. With the smoothest interfaces, removing that image of computers as hard hybridized machines with codes without human interactive logic, this one has more user-friendly, differences from that corporate equipment, as the Disney animatronics or human robots for entertainment is the application of robots absorbing the actions and subjectivities of human movements in machines. The mimicry of smooth and delicate movements performed represents parts of the human subjective movement sciences field and their skills. Then mimicking soft elements and smooth movements, in which the robots can express more realistically and represent human subjectivity, absorbed by machines for better communication and interactions with humans, in a perfect communication interface between men and machines. In recent years, with robust, dense fast databases, artificial intelligence, machine interaction with people and even talk biologically at a high level. Indeed, some human subjectivities have a path to be artificially simulated and interact with humans, e.g., virtual robots using human subjectivities. Questions about emotionality or immateriality technologically, through tissue engineering advances, refer to augmented reality interactions with tissues. These techniques could be amplified and connected to the mind to generate accurate interfaces and integration between men and machines, amplifying the synthetic biology that will be in this environment, obtaining benefits and progressing. This evolution is gradually bringing more tools for genetic editing, the Internet of the body (iOB), [4], [66] and these interfaces tend to intensify. This situation will bring DNA better comprehension, control, and suppression, when needed, for synthetic biology [78] and force body human artificialization for logical development because as with most evolution, it is well-developed and well-integrated with the highest product of evolution [2].

11.1 Human body functions and systems mimicked and aided through qubit logic.

Synthesizing and mimicking each functionalized gene in the human body using nanoanalytic instrumentation and allocating them in control blocks to be represented as an engineering flowchart system, amplifying its level controls to identify each gene and particle interaction in the body with an ID number concept [3], to be attached to a datasheet and process it using dense AI is a step advocated in this research. Everything functionalized using control blocks genes to formulate engineering paths and apply its skills to advanced tissue engineering, biotechnology, and genetics, with the objective of formulating a particle control science engineer system, such as CAx to engineers work with genetics and prototype sophisticated functionalized organics soft-hard and functional scaffolds constructions. The human being may have increased biological and physiological capacities and mimicry in all human systems, but for that, it is necessary to catalogue all parts from gene logic to large tissues. The taste, touch, vision, and thermal sensations are added as radar, magnetism, and magnification in the visual and auditory fields, capturing a greater spectrum of light and micro sound. As in mimicry the revascularization electrics and fluidics of the body tissues complemented with gene editing. There are thousands of functions in the human body to be evaluated, and computation can assist it in the physical interface with the particle logic in approximations and mimicked to be recognized by the biological system without rejection [16], [17], [18]. All organic functions are passive for editing to amplify their capabilities through the bioprocess’s logic science to a near interface in control of particles. The global control of large processes linked with complex logics would take place to control particles, specifically in mapping interactions, chemical affinity interfaces and integrations. Each body process was treated as an engineer’s control block and classification package: cardiovascular, respiratory, digestive, nervous, sensory, endocrine, excretory, urinary, reproductive, skeletal, muscular, immune, lymphatic, or integumentary. Following the artificial organs concepts and initiating from the chemical control interface between two particles and their logic to large tissues and the proper prototype construction, i.e., CAx experts engineering processes for high-level genetic molecules manipulators, then try to adapt life in extreme conditions weather of other planets, considering each minimum advantage, at least with more biological resistance.

11.2 Engineering flowchart to calculate and simulate energetic interactions between logic particles

Digitally, it is possible to use an engineering flowchart to condense the gene particle mechanism processes parts and their energetic events, connections, and physical-chemical communications, focusing on their particle interactions and even physics. Then, making use of the human genome project in a step further, cutting-edge technologies for more practical engineering procedures design usage and standards, so that human bodies come to be seen and treated almost as a machine, due to the high precision of analysed synthetic biology. The most intense use of particle mapping and activator genes [15], is complemented with modern genetic editing with an analytical mechanical engineering process. There are no limits to optimizing the complete nanomapping tissues to help identify gene controls, [44]. With a focus on the mechanical interactions between particles in the dynamism interfaces on complex chemical interactions with these processes, map and artificially simulate them, e.g., cell-on-a-chip and bioreactors [22], [35], complementing the advanced studies in genetics, biotechnology, and genes edition with computation and mechanical precision, electrical and chemical engineering standards. The technology cell-on-a-chip concepts consider as start analytical procedures, identifying a specific event gene stretch, then reading its gene transcription and digitalizing it to sketch an engineering flowcharts and diagrams for artificial simulation specific gene event, all monitored with quantum computer control for the properly analytical results study. With these technologies and modern engineering techniques, fluid mechanics are at a below level in nanomanufacturing processes. With replicable methods in assembly blocks to synthesize the cell. From an engineering point of view added, focusing on nanomanufacturing, and basic procedures, which along this route include:

• First map and simulate the gene mechanism digitally, inserting an ID number for each particle and its processes, to an interface in the digital connection in vitro, performing each local chemical synthesis to map its global interactions and map them by the physical-chemical interactions of strong and weak bonds between gene particles.

• Second is generating a complex and complete microbioreactors, logic particles, logic valves and flow automation in interface with AI aided by engineering, [42]. For each gene stretch, their mapped characteristics and logic interaction particles, generate datasheets of understood structures to mimic complex or simple functions and events.

There is a path for advancing to more sophisticated genetic engineering to this objective, which would be through physical particle interactions between quantum logic control blocks for synthetic human tissue progress. Therefore, the nanomanufacturing concepts, are unified with digital control, and physical means such as chromatography, pharmaceutical reactors, and organic chemistry synthesis. Also, bellow the automated assembly organic chemistry with everything in full and perfect working order. This achievement is the challenge that this research seeks through devices, such as lab-on-a-chip, all organized in sophisticated nanomanufacturing clusters, to unify an interface between engineering, computing, biological and genetic knowledge in real complex experiments. The basic concept is treating the nanomanufacturing as a hybrid concept, as engineering procedure control, presenting it as a highly technological industrial printer machine to feed it with chemistry and particle energy connections. Genetic editing into a physical assembly CAx line using chemical engineering and chromatography through quantum computational language to generate control blocks to manipulate the particle logic.

When Dr. George Beadle [23], discovered and demonstrated that genes act by regulating and defining chemical events, he presented these possibilities: “the programming in the DNA strands activates the cell as if it were a microscopic ultra-automated and cyber factory, inconceivably accurate, fast, and well organized”. Applying engineering, computing procedures and tools in biology crosses the boundaries, limits, and scopes of each specialty. A unification between these disciplines is a means to arrive at a common language to bring symmetry to asymmetric biology and consequently proper engineering of artificial tissues as a machine control. This research seeks to unify this knowledge to advanced genetic editing in its applications to induce artificial evolution in human tissues, collaborating with space exploration, all based on hybrid nanomanufacturing and precise mimicry. The study of the binding forces between particles presented in genes is vital in this research to feed conceptual nanomachines, [70], [71], [72] meaning a strategic architecture for building molecules. It is known that there is electromagnetism, strong and weak binding forces in molecules, in which the science particles in physic, are progressively incrementing with accuracy this knowledge, that speculating, soon can help in the artificial tissues, specifically with the particle’s quantum logic. This research does not aim to carry out a genome project particle science, or to discuss the theory of unification but tries to unify the binding forces in the genes to an engineering quantum CAx construction. However, understanding and mapping these forces on gene particles can be one research route, as is the interaction between particles complex molecular long-chain genetic syntheses. In this way, using the mechanical engineering process, machine parts control techniques are miniaturized to nanoscales to arrive at a biological standardization. With this complete particle mapping and specialized clusters, we try to narrow and mimic the genes with computational particle logic interactions for generating programming CAx, as an interface for process control on new molecular machines to advanced nanomanufacturing long-chain molecules, i.e., nucleoside triphosphates and genetics molecules, including the chemical simulation in artificial biology, and use the equipment to simulate pharma, i.e., that from the MSD™ in its extensive and dense library.

Through all this conjuncture offered by synthetic biology [1], [17], the forced mechanization of biological evolution is based on a conjecturing discipline, forming a hybrid set, including the advanced genetic edition [65]. Indeed, some technology is expected to help apply logic in particles, such as the proper control of artificially manufactured molecules. This can be the basis to make bodies resistant and adapted to space. Something like the skin processes controlled by genes, but mechanically as dots quantum controlled by quantum computing. Through nanoscience, the use of respirocytes [9], is expected to be an integral part of the synthetic human tissues discipline, as well as computronium technology [53], and nanonetworks [54], to appropriately feed nanomanufacturing sets. The most significant step in space exploration will not come from space aircraft technologies, but through the synthetic adaptation of our bodies to other planets in the harshest weather conditions. These artificial adaptation prospects offer alternatives for excellent resistance to the body in space, and Table I contains a list of technologies in prospect for artificial human adaptation in space.

Table 1

Prospecting technologies and perspectives for adaptations of the human body to space
Item	Induced synthetic adaptation	Expected effects and perspectives	Realization means and disciplines
1	UV protection	The tissue protection against UV rays in space with reflexive biochemistry contrasts, as thin clothes, or skin electronic functional inks intelligent tattoo	Genetic editing - inducing with blue, red changed melanin chemically - intensive iPSC cells replacement. Through the constant cell replacement
2	Blood micro-flow controlled	Effective flow communication and pressure controls	Nanosensor and implants interface technology
3	Archtecture in vision protection	Vision improvements and increments architecture, including infrared vision	Genetic editing and superficial / deep nanotopography
4	Echolocation	Geolocation capability with nano-magnetism uses	Nanosensors and implants
5	Respirocytes	Artificial respiratory system	Bionanotechnology and scientific pharmacy
6	Ubiquitous monitoring	Monitoring the vital signs analytically	Nanosensors and biochemistry
7	Temperature control	Avoid hypothermia and hyperthermia.	Genetic editing and nanotechnology
8	Suppressors	Suppression of hair and human subjectivities	Genetic editing pharming molecules
9	Bio-anthropometry	Measurement of any human body particle	Bio-measures and bioartificial interface
10	Artificial stomach reactor	Synthetic energy capture system	Chemical synthesis in nanoequipments
11	Artificial immune synthetic system	Active artificialization synthetic immune system.	Biological mimicry by nanotechnology and particles controls
12	Building artificial organs	Fast recovery in the damaged tissues in advanced tissue engineering	Artificial microfluidic, electrical and revascularization control

Source: author's development – perspectives and suggestive fields.

Inducing tissue evolution synthetically mechanizing requires genetic controls in conjunction with several other technologies, e.g., engineering or revascularization interfaces and integrations between artificial organs mimicking natural tissues, but most resistant. Something like a three-dimensional puzzle in which each piece of the high-density cluster will only have a single connection. Alternatively, these proposed projects are based on modern technologies, e.g., computer-aided technology (CAx) engineering tools to draw biocircuits with mathematical logic to arterialize artificial tissues and organs, using nanomanufacturing architecture to form microcircuit channels [26]. Some digital technologies are considered adapted to quantum processing, such as CAx, i.e., the famous computer-aided design (CAD), computer-aided manufacturing (CAM), or computer-aided engineering (CAE), and others, i.e., the most modern technologies for 3D genetic sequencers, with engineering flowcharts adapted for biology. The next step would be cluster miniaturization in automated nanomanufacturing. A laboratory manufactory with computational interfaces to initially simulate biological particle sciences and its electrons interactions, classifying their relations and transforming this simulation into patterns for assemblers of long-chain molecules. Dense and complex automated nanomanufacturing with process reactors, nanochannels, bio-valves, instrumentation requiring logic analytics for syntheses, pressure, temperature regulation, and valve logic control. One practical application would be to create complex miniaturized labs in boxes and send them to space for dense simulations, as already is done with nanosatellites [41], and by NASA investigations inside the ISS to simulate the human body's functions. This study remembers that the knowhow of the China National Space Administration (CNSA), European Space Agency (ESA) and National Aeronautics and Space Administration (NASA) are considered, in the presented study as a proposed booster to increase human permanence in space. The laboratory in a box proposal sketch, is described by illustration 1. It would be a dense chemical biocomputer that simulates specific artificial body parts, functions, and fluxes of the human body, with special attention to map the complexest trigger genes of human tissues in relation to extreme space weather conditions, e.g., using computer laboratory nanosatellites and inserting artificial human tissue alive for in vivo space simulations to feed the hybrid nanomanufacturing concepts, as the new generation of organic tissues manufactured with scaffolds and stem cells.

In closed system confinement, the most basic support for life in space includes supplying air recycling and filtration, strict control over the O₂ and CO₂ ratio, high engineering in humidity and temperature, ionizing radiation controls, microgravity, and UV radiation management, but outside this controlled system, there is no life. Therefore, in space, some problems to keep biology alive, can be simulated, such as water vaporization, and nitrogen formation in artificial tissues, with a focus on analytical biology behaviour and the applications to simulate through CAx in quantum aid studies about decompression in artificial organs, to present the effects analytically in detail, and through them seek solutions to keep human vital signs under space conditions. Using cutting-edge IA, it is possible to virtualize the microlabs to simulate all molecular active library manuals from MSD pharmaceuticals, as a chemical advance, after proper authorization to run trillions of new combinations directly inside artificial in-vivo tissues or organs in space, and an approach is to associate the qubits with molecules to a proper control. The question to be answered is how to keep the tissues in space alive and functional as the epithelial, connective, adipose, cartilaginous, bones and blood tissues, muscular, cardiac, nervous, neurons, fluid circulation, pressure, temperature, and the global system in full operation under spatial weather conditions. The concept is based on trying to answer this complex question, that is, to use each artificial part of the human body in-vivo and send them to space for simulations to study it at in high level, including pharmaceuticals, chemicals, and the behaviour of the modified gene component particles, with a focus on seeking the impossible adaptation of tissues to the outer space conditions to generate scientific studies, driven through computer quantics. For each human tissue, a miniaturized laboratory at a pharmaceutical precise level kept the tissue alive in space, artificially maintaining pressure, temperature, nutrition, circulation, and oxygenation. Each part of the human body, individually allocated in a sat cube, contains a biological laboratory, to simulate in mass specialized artificial organs, tissues, deep micro vascularization of its fluid’s chemical interaction, and from microbiology in tissues, all in-vivo artificially using satellite laboratories. These simulators could be launched into space in sequence, by the thousands, connected to advanced telecommunication systems for pharmaceutical simulation, biochemistry, and mining technologies, objecting to artificially maintain and sustain living tissues. This procedure is a method for intermittent simulations, in which it is expected to form an efficient and constant procedure to refine the analytics to test technologies on human tissues in space to find solutions. Indeed, part of the method consists of a conjuncture of thousands of molecular analyses that form human tissues and their specialized cells, classifying each gene and assembling the great bio-puzzle. Everything made strictly with cells specialized in thin adhesives, with surface area totally controlled by the structural architecture. Similar to quantum dots simulating organic chemistry through biological logic, all guided by quantum computing. It is expected to form a complex library for a global efficient molecular production system. Contemplating particle control, intermittent simulations and logic between particle-forming genes, synthesizing the action of triggering modified genes and physicochemical regulations for biological programming.

Space lacks oxygen, extreme UV rays, and fluctuating temperatures, a severity difference from our adaptation on Earth, which usually causes damage to cells and H2O evaporation through expansion of soft and hard tissues, among other problems. The natural adaptation theme is complex, and extensive literature with multidisciplinarity is necessary, each with its classification indexes and merits, including environmental integration with biology [49], suggesting that the environment, in which the living being inhabits can cause changes in embryonic cells. This can indicate a spectrum of possible actions for the perennial need for synthetic biology. The science presents technologies that can make it feasible with modern genetic editing, nanotechnology, field theory, high-density quantum computing, automated lab-on-chip and accurate quantum laboratories with lower costs and simulations through microreactors in logical biocircuits clusters. Additionally, we cannot wait for the natural evolution process to evolve and adapt our bodies to the environment's challenging needs on Earth, which are becoming hostile to general life, because of fast climate change. The proposed concept for nanomanufacturing follows a design presented in image 2, as a bioengineering IC architecture [27], but for dense organic chemistry. Generating an artificial and natural spacesuit with a high interface with biological human deep tissues based on hybrid technologies, and architecture in BIO-IC as space support to life, and artificial organisms. The base for this system is the most complex nanomanufacturing system to produce specialized molecules and simulate artificial organs, following superficial and deep nanotopography to form complex artificial vascularized tissue engineering, i.e., through reactors working as a synthetic stomach or respirocytes. In addition, there is a need to adapt the human body to outer space, which is completely hostile to life, starting with the most precise sets listing and classification of the organic chemical composition of the human body.

The hybrid nanomanufacturing proposed is a cutting-edge system with several integrations and interfaces between specialized disciplines, to unify quantum computation logic between deep materials in its fundamental state, and to bring consistency to all systems through mechanical synthesis, as demonstrated in diagram 1.

After mapping trigger section-specialized genes, a quantum system, is used, and CAx design drives the nanomanufacturing sections through quantum computation, virtually, controlling the architecture of the molecules in all quantum dimensions. Then, the system releases chemical inputs in exact amounts to the physical-chemical synthesis plate and at each assembly stage. Through electrical and chemical control, each molecule would be assembled through its modulation, increasing complexity after each block of strict specialization. The system contemplates top-down and bottom-up particle control to assemble molecules, integrating technologies, such as ultrahigh vacuum tunnelling microscopy, quantum dots with subnanometer precision, circuit mimics, how electrons bounce along a single and double carbon chain in a molecule, and then modelating large molecules to their due stabilization with quantum computer logic. Everything to syntheses in its assembler control modulates molecules from simple to complex long-chain to the densest functional molecular blocks.

We have recently seen an increase in space exploration advances, while most technologies are based on mechanisms, machinery, and high-level science of control, but little in design for particle and molecule modulation, assemblers, and control. Although the necessary solution is so difficult, it is difficult to calculate the formulation pattern of the chemical synthesis time, specifically the time to assemble a polymeric molecule, i.e., the process to assemble a genetic molecule, determine the time to assemble a gene protein synthesis, and then formulate a patterned algorithm to calculate the time process. Faced with enormous challenges, advanced medicine together with cutting-edge engineering, plays a vital and actual role in this new space exploration industry with the principle of saving lives. Such broad advanced and complex subjects could not be treated otherwise initially through hypotheses, including science fiction, magnification, and imagination in possible probabilistic and dystopian scenarios to formulate the ideas clearly, but they were very real and based on evidence, with a focus and objective of keeping vital human signs in severe conditions, such as in space weather [50]. In terms of adapt technologies under study, e.g., the respirocytes are means of artificial respiration or oxygenation, also the synthetic stomachs that would be artificial energy synthesis reactors. The researched route was the classification of the entire possible scientific spectrum for induced biologic tissue advances, and the use of real simulation technologies. Examples include microreactors, quantum digital simulation, application of the human genome project library in practice to control gene events, particle energy mapping, natural and chemical forces involving chemical DNA syntheses to perform block classification, and the use of these processes. Finally, dense information on the surface and deep areas of organic materials is concentrated for high-level control gene editing aided by technological interfaces of computational organic bioinstrumentation. This research explained that the artificial human evolution discipline is presented in practice as a possible spacesuit, through a natural way application, directly on the body, genes, mind, molecular modulation, blood, and tissues in general, as an organic booster. Science in human bodies overcomes the needed challenges in environments hostile to life as an emergency study field. These theories can become a practical reality, further proving that space cannot be explored just with the present vehicles for space exploration, with high-level modification technologies directly in the human bodies. The question is no longer how to get to and access space, but rather, how to stay properly for the long-term in this hostile environment through changes in human body technologies. Was discussed challenges and possible paths to keep the first human generation properly on space for all their life, from born to death, and giving steps to the next generation. In recent decades, space evolution has been surprising, and many doubted such progress, the same is true for the control of atoms and molecules, it is a matter of quantum computational integration mirror with particles, such as the manipulation of quantum dots on a three-dimensional screen or a 3D liquid crystal, however, it is driven by quantum complexity and full atom control. Listing the space hostilities scenarios to the human body and characterizing its effects on biology is the first step in the search for solutions to find cutting-edge strategies to keep humans in space for the long-term, considering the synthetic technologies used in the human body for space progress. Including, the new space analysis with the artificial tissues engineering material behaviours controls through the superficial and deep nanotopography map for bio-anthropometry, through architecture molecules control that make up organs, components, and human body parts, aiming at human space long permanence.

Briefly, the meaning of this system is conferring the integration between quantum computers for logic in atoms and particles to mechanical synthesis to assembly molecules through CAx quantum control. The preliminary answer may be through concepts based on hybrid complex nanomanufacturing interfaces and highly analytical classifications for quantum computing control of human tissue architecture, as presented in detail throughout this study. Combining these technologies and scientific hypotheses, it is possible to conclude that synthetic human biology is achievable. Considering that the causes of biology are complex, there is the possibility of atom modulation and proper control through quantum computing and logic. One of the routes is mapping the logical communication and the forces between gene particles, molecules, and subparticles to assemble, modulate, control the structure, and feed the hybrid technological machines, to generate complex integrative interfaces between qubits and materials mirroring the deepest fundamental state of materials, bringing logic control to most state fundamental materials. As a result, the possibility of generating hybrid nanomanufacturing for complex gene molecule assemblers through chemical, mechanical, and hybridized synthesis blocks in automated production for synthetic human tissues was verified to complement genetic editing and beyond with the new logic of quantum power computing to mechanize biology. Technologies supported by chemical bond mapping can indicate the best-patterned nanomanufacturing package processes, such as Bio-IC architecture organisms that can generate hybrid technologies for more sophisticated genetic editing complements to mimicking and controlling the most long-chain complex molecules and their proper subassemblies and interactions, as well as the CAx technologies in quantum computers, as assembler molecules. Therefore, the method and technologies for induced artificial human biology based on scientific implementations are gradually progressing to advances in tissue engineering and to future biological adaptation to space weather and other planets. In conclusion, this study presents possible paths for engineering tissue-adapted hybrid technologies as spacesuits that are naturally implantable to humans to properly colonize space. It is known that chemical synthesis, as seen in the pharmaceutical industries, the industrialized batch process occurs in large volumes, with high precision and reliability in the stability of the molecules, but not at an extremely complex level, such as a long-chain genetic stretch. Watching this bottleneck. This study set the stage for the potential of highly controlled mechanical synthesis, which would be a model of automation of the assembly of specialized long-chain molecules. For this feat, the objective would be the unification and production in levels of complexity, however interconnected by quantum computing and its logic mirroring matter in its ground state. To this end, we can design matter through CAx systems and then integrate biology as a mechanical computer.

a. Conflict of interests

The author declares that there are no conflicts of interest. The study is purely academic, and he also declares that there was no funding used. Additionally, there was no participation of third parties or institutions in this research.

b. Ethical Approval

Not applicable. Justificative: it is important to note that no specimens of biological origin or human parts were used in this theoretical research. The focus of research is based on artificialization using organic materials of animal, plant, or human origin, for example, the construction of artificial tissues using particle logic and the use of quantum dots to simulate gene molecules through quantum computing. In this note, we can say that the research is not subject to approval by ethics committees since the research is purely theoretical and did not use live parts. The research aims to condense the findings as a source for possible future studies for real applications in human tissues to save lives in space exploration and computing natural biology.

c. Authors' contributions

Not Applicable

d. Availability of data and materials

Not Applicable.

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Charts, Images, Illustrations and Diagrams are available in the Supplementary Files section

chart.jpg
Chart I – A preliminary sketch to make the compass or route to be followed to human permanence in space. A ~1960: Space vehicles, mechanical basic theories, and space suits. B ~1970: Life systems supply, as food, air, water, and basic means. C ~1980: Improved communication and supply systems. D ~1990: Advances in space vehicle safety. E ~2000: Improvements in the facilities and medicine as tissue engineering. F ~2010: High advances in spatial scientific knowledge. G ~2020: Physiological advances and extended reality technologies, such, as XR, VR, MR, and AR.
ChartII.jpg
Chart II – summarizing expectations for the human challenge to permanence in deep space progress. Chart for the next level to keep humans in space for all their lives, from birth to death and the next generation, considering the quantum computer advances for engineering space progress.
Image1.jpg
Image 1 – The goal is to simplify the biologic complexity though a common bio-language for diverse disciplines uses.
Image2.jpg
Image 2 – Sketch of the conceptual nanomanufacturing assembler system that consists of a complex set up to produce long-chain molecules. The system produces molecules through mechanical and hybrid processes controlling mechanical synthesis as quantum computing and is modernized to pressurized modulating molecules through its atoms, controlling its quantum states. Something like Stanley L. Miller and Harold C. Urey but modernized and updated with cutting-edge technologies an engineering to controls at the most fundamental state of matter.
Illustration1.jpg
Illustration 1 – The laboratory computer cube nanosatellites with artificial human tissues parts in-vivoto artificial biological simulation into space conditions. The information collected by these cubes would feed nanomanufacturing molecular assemblers, a concept that will be presented to produce sophisticated artificial tissues and organs with greater resistance to the space environment. Conceptually, experiments working well in low orbit in terms of behaviour are sufficient to simulate hybrid technologies in deep space.
Diagram1.jpg
Diagram 1 – the basic objective of hybrid nanomanufacturing is to generate mechanical synthesis, which is expected to confer mechanical computer velocity and accuracy to assemble molecules, on one’s own biology as an integral computer.

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Integrating CAx with the Chemical Synthesis for Chemical Printer Architecting in Additive Manufacturing with Logic in Materials

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Abstract

1. FOUNDATIONS

2. Methodology

3. Engineering and mechanicalizing the genes

4. Artificial human tissues as a new space exploration industry

5. Experimental organic chemistry using the updated Oparin hypothesis

6. Mapping the gene molecules and simulating them in clusters focusing on energy fields

7. Micro-nanomanufacturing, nanodevices and particle science focus

8. Searching for a pattern through the anthropometry of genetic excerpts

9. Closed system for process simulations in nanomanufacturing

10. Definitions for synthetic biologic engineering paths

11. Controlling the binding energies between particles and notes about human subjectivities

11.1 Human body functions and systems mimicked and aided through qubit logic.

11.2 Engineering flowchart to calculate and simulate energetic interactions between logic particles

12. Mapping the simple to high complexity interactions between gene particles

13. Induced space exploration through synthetic human biology

14. Extreme challenges dealt with as an academic laboratory campus

15. Discussion

16. Deductions

17. Declarations

References

Charts, Images, Illustrations and Diagrams

Supplementary Files

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