DE102022003959A1 - Device system generating extremely extreme compressive stresses and high (synthesis) temperatures for the direct encapsulation production of physicochemical products - Google Patents

Abstract

The invention relates to a functionally synergistic design, virtually any number of power machines that can be connected, a (press) device system that generates the most extreme (internal) stress pressure. A die-like conversion device, centrally introduced (raw) material feed, is used to incubate compressive stress generation, followed by electrically inductive and self-inductive, thus at least one (die) shell (electrochemical temperature generation, most extreme compression pressure effects, physicochemically very high energy densities of synthetic materials. At the same time, the incubated synthetic materials are encapsulated, the volume reduction resulting from the compression pressure effect, directly fused to the structure of the inner die shells, forming a defined pressure vessel with high toughness. The incubated synthetic materials experience defined pressure vessels, depending on their application as fuel, directly as an engine device, or Explosives, then defined jacket body device, or encapsulated cores in armor-piercing microprojectiles, etc., thus specifically melting, blowing up, or breaking up ready-made compositions, production. The production of a synthetic material such as polymer nitrogen alone, despite its unlimited raw material procurement, in application consideration of armor-piercing assault rifle cartridge ammunition, the most modern slat/layer profiles protected battle tanks, finally combatable. As a result of this singular increase in single shot performance, compared to similarly effective hard-to-obtain (hard) uranium bullets, or comparable fist systems, this breakthrough innovative invention already develops particularly far-reaching advantages in terms of the resulting increase in combat power.

Description

• - dessen auf die, einer Gesenk ähnlichen Wandlungs-Vorrichtung, zentral eingebrachte (roh-)stoffliche Beschickung, anlaufender Druckspannungs-Erzeugung, beifolgend elektrisch induktiver und selbstinduktiver, mithin zumindest einer (Gesenk-)Schale (elektro-)chemischer Temperartur-Erzeugung, summarisch extremste Verdichtungsdruckwirkungen, physikochemisch sehr hohe Energiedichten aufweisende Synthesestoffe Herstellung erhalten, und direkt strukturierter innerer Gesenk-Schalen, der Raumvolumenverkleinerung entsprechender Verschmelzungen, einen definierten Druckbehälter hoher Zähfestigkeit bildend, eingeschlossen druckgesiegelt verbleibend,
• - so ihrer Anwendung nach als Treibstoff, dann direkt als Triebwerk-Vorrichtung, oder Sprengstoff, dann definierter Mantelkörper-Vorrichtung, oder verhülster (Synthesestoff-)Kerne Panzer brechender Mikroprojektile, etc., sonach spezifisch aufzuschmelzenden, aufzusprengenden, oder aufbrechenden Fertigsatzes, physikochemisch direkt (vorrichtungs-)kapselnde Produktion erfahren.

2. The invention relates to a novel functionally synergistic design, solely dependent on the available mechanical engineering materials/material strengths, thus virtually any number of connectable power machines, summarily focally generating the most extreme (internal) tension pressure (pressing) device system,

• - whose centrally introduced (raw) material feed, starting pressure stress generation, subsequent electrically inductive and self-inductive, thus at least one (die) shell (electro-)chemical temperature generation, in summary the most extreme compression pressure effects, physicochemically very high energy densities exhibiting synthetic materials production, and directly structured inner die shells, the volume reduction of corresponding fusions, forming a defined pressure vessel of high toughness, remaining enclosed and pressure-sealed,
• - depending on their application as fuel, then directly as an engine device, or explosive, then as a defined jacket body device, or encased (synthetic material) cores of armor-piercing microprojectiles, etc., thus specifically melting, blasting or breaking up a ready-made mixture, undergoing physicochemical direct (device) encapsulation production.

3. In addition to the traditional (large) press devices that work with levers, lever cams, hinged levers, etc., screw thread or spindle presses of various designs are generally known to generate higher (pressing) pressures or (internal) compressive stress. The latter have been replaced by relatively maintenance-free hydraulic press systems despite the further development of high-strength (thread) carrier materials and optimization of the screw threads (surfaces) and thread shapes (area ratios/effective forces) of the respective spindles, primarily the dynamically building up friction pressure forces (displacement forces/tensor fields), and finally lower moments of inertia.

3.1 The high pressure physics that traditionally forms the basis of today's hydraulic press systems came into being in the 1930s, particularly by Bridgman, the hydraulic devices used there, device arrangements, component dimensions and material determination, fundamental factors in the generation of high pressure and ultra-high pressure. Systematic improvements to unsuitable sealing systems and increasingly increased pressures, in which pressure fluid escapes from the device materials used, optimized materials and improved experimental hydraulic designs, in which the sealing pieces seal themselves more and more strongly with increasing pressure, and thus the use of steel punches, Bridgman was able to handle pressures, to put it figuratively, a mass of 0.12 t/mm ² accumulated on the punch face.
3.1.1 Further improved dimensions of the hydraulic constructions in relation to one another and hydraulically arrangement-optimized communicating device components, which results in the basic hydraulic press principle, i.e. an oil-promoting cylinder and (lever-driven) oil pressure piston, whose oil is pressed into a larger cylinder against a reciprocating piston via valves, and thus further significantly improved sealing and stamping materials, the latter being novel, low elasticity and very high strength tungsten carbide, a pressure generation of 1 t/mm ² has been realized in a standardized application-technical manner.
3.1.2 In contrast to the condition that arises with a further increase in the generation of extreme pressure, that the cylinder jacket expands slightly despite the very hard tungsten carbide and leaks occur, almost proportional to the increased pressure force, pressure losses in the cylinder pressure chamber, further strong reduction of the cylinder pressure chamber, thus the tightness achieved by the now produced wall thickness of the tungsten carbide cylinder jacket, and correspondingly optimized dimensioning of the arrangement components, pressures of 4.25 t/mm ² could be generated at the end of the 1930s.

3.2 The basic principle of hydraulic presses, and the use of tungsten carbide cylinder jackets shrunk into steel jackets, small oil pressure piston pins made of high-performance steel and hydraulic fluid driven by engine-driven (piston) hydraulic pumps in the cylinder pressure chamber, have been experimentally achieved in the 1950s up to ~ 6.8 t/mm ² .

3.3 At the same time, the production of synthetic diamonds was achieved by focusing on relatively small volumes of compressed graphite preheated to a higher temperature. Further specific physicochemical basic research of this time was carried out on the pyrolysis of methane from pre-compressed graphite in the presence of catalysts such as nickel, cobalt or iron, which act as carbon solvents, and the kinetic product of this, depending on the aggregate mixture and the preheating to > 1500 C°, from ~ Diamonds can be deposited at densities of 5.2 to 10 t/mm ² , and diamond synthesis has become an industrial reality. Using laser radiation generated at temperatures of over 3030 C° and compaction effects of > 13 t/mm ² , diamonds with higher densities than those found in nature can generally be synthesized.
3.3.1 Artificial diamond production is different from the high-pressure hydraulic systems used by Diamond Materials Corporation et al. PCT WO 02/16676 A1 , an external material-defined limited elasticity quasi infinitely solid (shell) abutment, which can be regarded as an external press body, similar to a die, piezoelectric system-packaged block body, centrally forming a synthesis compaction space, which is affected by a variant of a gap or channel leading to the outside, a special press device is disclosed.
A possible resulting application, in a certain negative prestress of the PZ block bodies, and by means of laser radiation, heating the pre-compacted graphite aggregate, subsequently closing the outer jacket body abutment of very high abutment compressive stress, and positive electrical tension of the PZ block bodies, here inwardly progressive systematic increase of the internal compressive stress, industrial diamonds are produced.
3.3.2 Based on the currently experimentally known piezoceramics and hypothetically the fundamentally necessary electrical coverings, it is most likely impossible for this type of construction to generate compressive stresses of more than 35 t/mm ² compared to stamp-like devices. This is also impossible because the compression forces that arise physicochemically and are necessary under natural (breeding) conditions in order to be able to obtain synthesis products that have very high energy densities, piezoceramics lose their electrical dipole moment when exposed to high temperatures for a longer period of time, and the (main) compressive stress generation that this type of construction basically has to provide is transferred retroactively to the external abutting device system.

3.4 In order to achieve very high compaction effects using the basic hydraulic press principle of (hollow-form) dies and punches, continuous improvements in the device arrangement, the device components, materials, the hydraulic fluid used, the channel diameter, the component dimensioning, and optimization of the structure, including in columns and/or parallel-connected hydraulic pumps, hydraulic gears, etc., have been and are being made to achieve continuously higher compressive stress energies.
3.4.1 2001 of the materials industry (space technology sector), specific metallurgical/ceramic material research, using laser radiation through the fusion of oxide ceramic aggregates, iridium carbide, as well as high elasticity and at high temperatures, thus ring-shell-like non-oxide ceramics offering very high crystalline compression crack and/or fracture strengths, as well as artificial metals introduced in layers by sputtering, together with the use of titanium carbide and apparently special (binding) silicides, various stamp structures, assuming extreme compressive strengths, thus very high (stability) hardness levels, conical shape structure, self-supporting, stable stamp and precisely measured time windows of small volumes (inertia-) insulated by laser technology, temperatures > 3030 °C, experimentally reproducible compressive stresses of 90 t/mm ² have been achieved.

3.5 Under naturally occurring physicochemical (breeding) conditions, the production of the synthesis product, polymeric nitrogen, which assumes very high energy densities, at temperatures > 1800 C° and compaction pressure effects of > 110 t/mm ² was already predicted at the end of the 1980s.
3.5.1 In 2004, the Max Planck Institute in Mainz succeeded in experimentally producing polymeric nitrogen for a short period of time, but without providing a detailed technical explanation of the experimental system or device(s) and/or arrangement used (Max Planck Society | press release 20040822).
3.5.2 The synthesis of polymeric nitrogen with high energy density, which is therefore (militarily) referred to as a super explosive, is particularly important in the patent documents JP 2006-175297 A 2006.7.6, 2013 CN 101912749 B , and CN112158814A 2021.01.01, each separately necessary external device system, such as, among others, comparable to the conical tapered stamp shape used to generate nuclear uncontrolled chain reactions, stamps guided star-centered against each other, the realization of high (synthesis) compression pressure effect, but always insignificant spatial volumes, hence insignificant synthetic material feed quantities, disclosed.

3.6 Furthermore, at the end of 1997, there was a brief (“stalker”) report on “Borderlands of Science” concerning the physicochemical production of synthesis products with very high energy densities. This was apparently military-led research, but largely lacking in specifications and, without any further source information, deviating from the usual (hydraulic) compaction methods, the disclosure of an impact process.
This impact process, which generates extremely extreme pressure effects, is to be carried out there in the near future, apparently in a vacuum, using a circular magnetic levitation train or similar accelerator, a highly accelerated special projectile, shooting into a target that had been locally preheated to temperatures of over 3200 C° under laser influence, the impact event (internal) pressure effects of the equivalent of almost 700 t/mm ² are said to have been achieved.
3.6.1 Furthermore, no announcements could be made about the experimental facility used, or the nature of the projectile that was apparently to be electrostatically charged, or the propulsion method by which the projectile was to be accelerated to such a mass that the impact would build up and maintain such compression energies in the target in an elastic/plastic manner, or how the compression pressure-generating, stamp-like projectile, the time window resulting from the acceleration, from which the Liese could be deflected with high precision by opening the closed-circuit accelerator, or whether the special projectile was comparable to a die, directly within the compression space, etc., nor could any other possible publications be ascertained.
3.6.2 This disclosure of incomparably cost-effective physicochemical production of synthesis products with extremely high energy densities cannot be realized due to the basic problems mentioned above of missing solutions and the general absence of obvious technically adaptable key applications.

3.7 Temperature generators whose temperatures of ≥ 1800 C° are required for the processing or machining of metallic raw materials by means of presses and dies can be found primarily in metallurgy, where they are divided into low- to high-temperature processes.
3.7.1 The heating devices or temperature generators used here are usually defined as electrical industrial furnaces and further divided into high frequency, low frequency, wire winding induction, resistance, arc furnaces, as well as laser beam melting devices that generate very high temperatures (e.g. platinum evaporators), whereby the respective charge is always heated by means of pan, pear or crucible vessels.
3.7.2 High-temperature producers whose directly modified ladles, crucibles, pears are integrated into presses as dies, or are constructed as a kind of die-furnace-press (pyro-metallurgical devices excluded) cannot be found or are known.
3.7.3 Exceptions can therefore only be found in plastics processing in the low temperature range, where load-bearing (load-bearing) molded parts are manufactured using heating devices integrated directly into the (press) mold, in a vacuum up to a maximum of ~ 120 C° using special fillers, special plastics are synthesized.
3.7.4 Press devices which are designed as high-temperature generators directly integrated into their respective die device, or which would be or could be designed in this way, and which could therefore operate at synthesis temperatures of 1800 C° and compression stresses of significantly more than 110 t/mm ² for the production of polymeric nitrogen, are currently not known, nor have they been experimentally evaluated, or theoretically published.

3.9 Pyrometallurgy, which will be considered further, also involves the production of very high temperatures of metallic raw materials, workpieces, semi-finished products, etc., and very high temperatures and, technically, thermally/mechanically higher pressures are generated, which are then kept very precisely controlled over time, and undesirable (material) properties are eliminated by certain temporal (thermally controlled) cooling, but no temperatures of > 1800 C°, with the simultaneous generation of (synthesis) compaction pressure effects, such as those implemented in industrial diamond production of significantly more than 10 t/mm ² , are known, as they have been theoretically deduced in some way.
3.9.1 Thus, although aluminothermy chemical reduction, limited to a very small space, is implemented in the use of die-like molds, also for the extraction of heavy metals from their oxides, temperatures of up to 2000 °C, there are no known disclosures of this technology, which has been in development since 1894, whose exothermic, simultaneously controlled mechanical compaction compressive stresses over 10 t/mm ² (electrical/chemical/physical) could be driven, or which could be adapted to physicochemical synthesis processes.

3.10 Furthermore, since the invention of the inextinguishable Greek fire (holocaust), which had to be produced at very high temperatures, followed by phosphorus, which was then discretely developed into napalm, then (special) mercury defined by a certain colour, which is chemically enabled to thermally trigger nuclear reactions (micro-atom bombs) in a very small space, or mercury salts (especially those that are designated by a certain colour), as well as aluminium, magnesium compounds, etc., as well as materials such as zirconium, which can be machined under pressure to reach higher temperatures, have been continuously researched for military applications. A large number of chemical compounds have been identified whose reducing exothermic transformation processes can produce temperatures of over ≥ 3000 °C.
3.10.1 Likewise, certain radioactive (supplementary) substances, especially those elements with atomic numbers above 83, of which only radioactive isotopes exist, have been researched for (military) application in order to generate the highest possible (initialization) temperatures using suitable oxidizing agents and, finally, to generate very high temperatures by initiating further (step) reactions.
This temperature generation method, which is used almost exclusively for military purposes, has been used to discretely prove a large number of compounds, mixtures, alloys, also in the form of sintered aggregates, the purpose of which is usually to generate air-breathing reactions (explosive/implosive), catalyst-like intensification of radioactive radiation/s, multiple reversals of the shock pressure direction, pressures of up to 1.1 million bar, so that in the final firestorm even inorganic non-metallic materials melt and/or (partially) evaporate, i.e. > 6000 °C are reached.

3.11 Chemically exothermic reactions, generating high to very high temperatures, which are to be initiated electrically due to specific gas atmospheres, mostly filled with (residue) particles, depending on their material properties and the pressure present, which turn them into electrically conductive atmospheres, or assume self-inductive properties, thus becoming resistance conductors and generating high temperatures by prolonging exothermic conversion processes, thus border on the field of electrothermy.
3.11.1 Such properties and, in addition, exothermic reactions and electrical arc or gas discharges of particle-filled “gas atmospheres” that can be generated, which thus take on electrical conductor properties and/or exhibit electromagnetic radiation with determinable heat emission, or (particle conversion) heat emission, were demonstrated in the basic research of N. Tesla in the 1890s, cf. among others Tesla Edition Vol. 3 “On light and other high frequency phenomena” (lecture from February 1893 to the Franklin Institute in Philadelphia and from March 1893 to the National Light Association in St. Louis) “Experiments with alternating currents of high frequency and the application to methods of artificial lighting” (lecture from May 20, 1891 to the American Institute of Electrical Engineers at Columbia College in New York), and later, in the research of Reppe chemistry, up to the chemical synthesis of plastics of polymaterials with low energy densities compared to pure polymeric nitrogen. Polyacetylene (see H. Shirakawa, AJ Heeger, AG MacDiarmid; cf. documentation Nobel Prize in Chemistry 2000) adapted further development, applied electrothermally.
3.11.2 It is known from this that exothermic reactions and certain electrical (arc) excitation, thus the above-mentioned substances and/or reaction products, filled gas atmospheres, i.e. comparable to arc furnaces, can be used for certain periods of time or longer periods of time, temperatures of various levels from 1200 C° to about 2400 C° can be generated and/or maintained quite precisely, whereby, however, a simultaneous generation of compaction pressure of significantly more than 13 t/mm ² , as occurs in the diamond industry, cannot be derived or even technically disclosed.

3.11.3 Thus, in the very wide-ranging field of electrothermal energy, no devices or arrangements are known whose chemical and/or electrical/chemical exothermic processes, hermetically sealed high temperatures for the physicochemical synthesis incubation of temperatures > 1800 °C and compression stresses > 110 t/mm ² high products, which have very high energy densities, could be produced, or any more theoretically concrete considerations can be found.

4. At the present time, it can be stated in principle that no devices or device systems are available, or that feasible (non-experimental) machine concepts could be found, whose construction dimensions are limited solely by the available construction material, generally a large number of power machines that can be switched on in a summarised manner, virtually any compression pressure effects, and at the same time hermetically enclosing the basic material for conversion, incubation temperatures significantly above 1800 C°, thus maintaining the necessary incubation periods in an inertia-isolated manner, physicochemical products with high to very high or extremely high energy densities, desired product quantity, long-term dimensionally stable, that a serial production of polymeric nitrogen, or for example a fundamental research into the synthesis of pure acetylene in a plastic or solid state, which would hypothetically (with a suitable oxidizer) have an explosive power of a factor of 100 compared to polymeric nitrogen, to be able to realize it mechanically.

• 5.1 - mithin verknüpft eine innere Wandlungs-Vorrichtung (vergleichbar einer Gesenk-Vorrichtung) zu entwickeln, deren zentral hermetisch Wandlungsstoffe eingeschlossen, dieser quasi beliebig hohe anliegende Druckspannungen nach innen fokal gerichtet mechanische Verdichtungsdruckwirkungen auf die wandlungsstoffliche Beschickung umzusetzend auszuüben sind,
• - und gleichlaufend dieser zu entwickelnden Wandlungs-Vorrichtung, eine hermetische Verdichtungskammer auszubilden, deren die Beschickung umschließend gewünscht hohe (Synthese-)Temperaturen, mithin thermische Wirkungen zu erzeugen sind,
• 5.2 - und dieser Wandlungs-Vorrichtung, gleichlaufend eine Druckgefäß-Vorrichtung, dessen das physikochemisch hergestellte, oder erbrütete Produkt, stabil eingeschlossen, bis zur Weiterverarbeitung oder Anwendung verbleibt, zu entwickeln,
• - sodass eine industrielle Produktion kapselnd konfektionierend polymeren Stickstoffs, und allgemein eine neuartige physikochemische Produkt-Forschung, langzeitlich formstabil, hoher, bis sehr hoher, oder extrem hoher Energiedichten aufweisender Synthesestoff-Produkte, maschinentechnisch in Verwirklichung zubringen.

5. The object of the invention is to develop a machine system which must be expandable to the outside by any (sub)members, whose preferred construction system of press devices is used following the construction dimensioning which is only limited by the performance of the available construction material, a virtually unlimited number of pressure-generating power machines can be connected, so that directed sum Marinically, virtually “arbitrarily high” (internal) compression pressures can be built up,

• 5.1 - thus linked to developing an internal conversion device (comparable to a die device), whose centrally hermetically enclosed conversion materials, this quasi arbitrarily high applied compressive stresses are to be exerted inwardly focally directed mechanical compression pressure effects on the conversion material feed,
• - and in parallel with this conversion device to be developed, to form a hermetic compression chamber, which encloses the feed and is intended to produce high (synthesis) temperatures, thus thermal effects,
• 5.2 - and to develop, in parallel with this conversion device, a pressure vessel device in which the physicochemically produced or incubated product remains stably enclosed until further processing or application,
• - so that an industrial production of encapsulated, packaged polymeric nitrogen, and generally a new type of physicochemical product research, long-term dimensionally stable, high, to very high, or extremely high energy density synthetic material products, can be realized mechanically.

• - dass eines Schrauben-Getriebes, bevorzugt eines Flachgewindesystems, der Spindelwelle und des Zylinderinnengewindes zueinander eine Gewinde-Spielpassung, linearer Bewegungsfreiheit (Freigangraum), somit ein Geschiebe bestimmter Kurzhub-Bewegungsfreiheit erzeugt wird, und bevorzugt im Schraubenzylinder Druckmittel-Bohrungen eingefügt werden, sodass hinzu dem Schraubengetriebe funktionssynergetisch ein Druckmittel-Getriebe erzeugt wird,
• - wobei bevorzugt dem gewundenen (Vollmaterial-)Profil des Schraubenhohlzylinders schottenartige, direkt des Druckmittels gesteuert, bzw., bewegt, abdichtende Nocken-Vorrichtungen eingepasst werden, sodass erfindungsgemäß essentiell einzelgliedartige Abteilungen erzeugt werden, und hierbei jede Abteilung eine Druckmittel-Bohrung erhält, sodass der Spindel herumgewunden, in Form einer Koaxial-Kolbenstange einzelgliedartig wirkende Druckmittel-Getriebe aufsummiert werden,
• - mithin nach außen beliebiger Erweiterung dieses Systems, unendlich viele einzelgliedartig wirkende Druckmittel-Getriebe aufsummiert werden können,
• - und dass diesen funktionssynergetisch wirkenden Schrauben/Druckmittel-Getriebes, eines bevorzugt birnenförmig mörserartigen Mantelkörpers, eine (Pressen-)Vorrichtung erzeugt wird, deren ergänzt geeigneter Ventile und Piezo-Elemente, mithin von außen quasi beliebiger Anzahl zuschaltbarer Kraftmaschinen, hydraulisch mitkoppelnd der Kolbenstange, üblich einer dieser vorgesetzten Stempel-Vorrichtung oder dieser direkt verknüpft, allein abhängig der verfügbaren Maschinenbaumaterialien/Materialfestigkeiten, gerichtet höchstextremste (Inner-)Spannungsdrücke umsetzend, erzeugt werden können,
• - dass weiterführend eine gesenkartig mehrschalige Wandlungs-Vorrichtung, und ihres (mehr-)schalenartigen Aufbaus im schematischen Grundsätze, bevorzugt einer (Rohr-)Hülse und mehrgliedriger (Kompressions-)Federteller-Vorrichtungen gebildeter Hülsen-Verschlüsse, zentral eine hermetisch zu verschließende Verdichtungskammer ausgebildet wird, welche verflüssigter, flüssiger oder gasförmiger (Roh-)Stoffe beschickt, diese hermetisch hohem bis sehr hohen (Vor-)Drucks verschließt,
• - dass diese gesenkartig mehrschalige Wandlungs-Vorrichtung, ihres (Material-)Aufbaus und inneren (Gesenk-)Schalen, zumindest einer Zwischenschale, bevorzugt eines Rippenelement-Systems, veranschaulichend einer endoskelettartigen Struktur hergestellt und sehr hoher Druckspannungen zentral gerichtet, genau bestimmbarer Raumvolumen-Verkleinerungen, und bei bestimmter Temperatur-Einwirkungen innere Gesenk-Schalen verschmelzend, mit Abkühlung einen Druckbehälter sehr hoher Zähfestigkeit ausbildend, erzeugt wird,
• - dass der mehrschaligen Wandlungs-Vorrichtung ((Rohr-)Hülse und (Kompressions-)Federtellerverschlüsse), zumindest eine Zwischenschale (bevorzugt eines Rippenelementsystems) spezifisch strukturiert, Kanäle gebildet und diesen Kanälen chemische Stoffe/Stoffgemische, eingefügt werden, deren bestimmten Drucks und/oder elektrisch initialisiert, differenziert chemischer Reduktion und/oder Reaktion, exotherm hohe bis sehr hohe (Synthese-Temperaturen erzeugt werden,
• - dass initialisierter chemischen Reaktion, in den Kanälen entstehenden Aerosol-Atmosphäre und/oder Plasmas und/oder Flüssigkeit, gleichlaufend definiert als mechanisch/elektrische Wellenleiter, elektrisch/mechanisch, synchron elektrisch induktiv und selbstinduktiv, elektrisch solitärer Wellen-Mechanik, elektro-chemisch präzise Temperarturen (bestimmter Periode/-n), erzeugt werden,
• - und dass hiernach dem birnenförmig mörserartigen (Pressen-)Vorrichtungssystem, bevorzugt nur eine elektrisch/mechanisch solitäre wellen-mechanische Leiter-Vorrichtung, mithin der Wandlungs-Vorrichtung Kontakt-Elektroden eingefügt werden,
• - dass schließlich gleichlaufend des (Pressen-)Vorrichtungssystems, quasi seriell beliebiger Anzahl zuschaltender Kraftmaschinen, funktionssynergetisch gerichtet summarisch extremste bis höchstextremste Verdichtungsdruckwirkungen erzeugt und fokal der Wandlungs-Vorrichtung eingefügten Beschickung, hohe bis sehr hohe oder extreme Energiedichten aufweisende Synthesestoffe Wandlungs-Herstellung erhalten,
• - wobei erfindungsgemäß essentiell, gleichlaufend der Wandlungs-Vorrichtung verschmelzender Innenschalen, bevorzugt spezifisch strukturierten Rippenelementsystems metallisch/keramisch, eine definierend laminierte Druckgefäß-Vorrichtung ausgebildet wird, deren das physikochemisch hergestellte, oder erbrütete Produkt, stabil, sowie form- und gestaltdefiniert eingeschlossen, bis zur Weiterverarbeitung oder Anwendung, verbleibt,
• - mithin eine industrielle Produktion kapselnd konfektionierend polymeren Stickstoffs, und allgemein eine neuartige physikochemische Produkt-Forschung, langzeitlich formstabil, hoher bis sehr hoher, oder extrem hoher Energiedichten aufweisender Synthese-Stoffe, maschinentechnisch realisiert wird.

6. The object of the invention is solved in principle schematically by

• - that a screw gear, preferably a flat thread system, the spindle shaft and the cylinder internal thread have a thread clearance fit, linear freedom of movement (clearance space), thus a attachment with a certain short-stroke freedom of movement is created, and preferably pressure medium bores are inserted in the screw cylinder, so that a pressure medium gear is created in functional synergy with the screw gear,
• - wherein preferably bulkhead-like cam devices which are directly controlled by the pressure medium or moved and which seal the cylinder are fitted into the wound (solid material) profile of the hollow screw cylinder, so that according to the invention essentially individual-link-like compartments are created, and each compartment receives a pressure medium bore, so that the spindle is wound around and individual-link-like pressure medium gears are summed up in the form of a coaxial piston rod,
• - thus, any external extension of this system, an infinite number of single-link pressure medium gears can be added up,
• - and that this functionally synergistic screw/pressure medium gear, a preferably pear-shaped mortar-like casing body, is used to create a (press) device, which can be supplemented by suitable valves and piezo elements, thus virtually any number of externally switchable power machines, hydraulically coupled to the piston rod, usually a stamping device placed in front of it or directly linked to it, solely depending on the available mechanical engineering materials/material strengths, and can convert the most extreme (internal) stress pressures in a directed manner,
• - that furthermore a die-like multi-shell conversion device, and its (multi-)shell-like structure in the schematic principle, preferably a (tubular) sleeve and multi-part (compression) spring plate devices formed sleeve closures, a centrally hermetically sealed compression chamber is formed, which feeds liquefied, liquid or gaseous (raw) materials, seals them hermetically at high to very high (pre-)pressure,
• - that this die-like multi-shell conversion device, its (material) structure and inner (die) shells, at least one intermediate shell, preferably a rib element system, is produced illustratively of an endoskeleton-like structure and very high compressive stresses are directed centrally, precisely determinable volume reductions, and at certain temperature effects, inner die shells fuse, forming a pressure vessel with very high toughness when cooled,
• - that the multi-shell conversion device ((tube) sleeve and (compression) spring plate closures), at least one intermediate shell (preferably a rib element system) is specifically structured, channels are formed and chemical substances/mixtures of substances are inserted into these channels, whose specific pressure and/or electrically initialized, differentiated chemical reduction and/or reaction, exothermically high to very high (synthesis temperatures) are generated,
• - that initialized chemical reaction, aerosol atmosphere and/or plasma and/or liquid arising in the channels, simultaneously defined as mechanical/electrical waveguide, electrical/mechanical, synchronous electrical inductive and self-inductive, electrical solitary wave mechanics, electro-chemically precise temperatures (of a certain period/s) are generated,
• - and that contact electrodes are then inserted into the pear-shaped mortar-like (press) device system, preferably only an electrical/mechanical solitary wave-mechanical conductor device, thus the conversion device,
• - that finally, in parallel with the (press) device system, virtually any number of power machines connected in series, functionally synergistically directed, extreme to extremely extreme compression pressure effects are generated and, focally inserted into the conversion device, high to very high or extreme energy densities of synthetic materials are converted,
• - whereby, according to the invention, essentially, parallel to the conversion device, a defined laminated pressure vessel device is formed from inner shells that fuse, preferably a specifically structured metallic/ceramic rib element system, in which the physicochemically produced or incubated product remains stable and enclosed in a form and shape defined until further processing or application,
• - thus an industrial production of encapsulated, packaged polymeric nitrogen, and generally a new type of physicochemical product research, long-term dimensionally stable, high to very high, or extremely high energy density synthetic materials, is realized mechanically.

• - dass überkommener Schraubengewindetechnik, eines beliebig langen oder zu verlängernden (Vollzylinder-)Stabes, eine Spindelwelle gebildet, des Spindelaußengewindes (Schraubungs-Andruckflanke, bzw. Profil-Anpressfläche), und des Zylinderinnengewindes (Gegen-Anpressfläche), zueinander eine bestimmte Gewinde-Spielpassung erzeugt wird, so dass des Gewindes eine lineare Bewegungsfreiheit (Freigangraum), der Spindelwelle im Gewinde des Schraubenzylinders, eine Art Kolben-Geschiebe bildend, erzeugt wird, welches am Spindeltrieb, die Geschiebegänge entsprechend geschiebefähig separierend (bevorzugt der Einpassung ausgeführter Gewindeprofilansätze), verschlossen wird, und entlang dem Zylinderinnengewinde (Anpressfläche), bestimmt platziert, Hydraulikbohrungen eingefügt werden, die dort als Eintrieb- und auch Abführungs-Kanal eingesetzter Hydraulikflüssigkeit wirken, mithin der (Gewinde-)Spindelwelle, gemeinsam ihres (Gewinde-)Zylinders (bestimmter Geschiebedistanz des Kolbengewinde- und Zylindergewinde-Profils hydraulisch gegeneinander erzeugten Geschiebe-Druckflächen, somit enormer quasi beliebig hydraulisch erweiterbarer Krafteinwirkungen, der gewissermaßen gegen unendlich lang aufstapelbaren Gewinde-Einzelwindungen), hinzu ihrer Schraubenmechanik, eine hydraulische Kurzhub-Vorrichtung erzeugt wird,
• 6.1.1 - welcher jeweiliger Hydraulikbohrung, von außen in Kolonne und/oder parallel zuschaltbarer Höchstdruckpumpanlage/-n aufsummierbarer Druckkraftwirkungen, der Kurzhub-Spindelwelle ihres Gewindes verteilt in Bewegungsrichtung übertragend auf ihre Spindel-Stirnfläche fokussiert (Fläche/Querschnitt), aufsummierend quasi beliebig hohe Druckspannungen (in Abhängigkeit des Materials, der Dimensionierungen und der gesenkartigen Wandlungs-Vorrichtung quasi zentral zu fokussierenden Gegenwirkungen), erzeugt werden (können),
• - und dass der erzeugten Spindel-Kurzhub-Hydraulik bevorzugt Pressen-Vorrichtungen erzeugt werden,
• 6.1.1.1 - dass hierbei grundsätzlich der, des linear beweglich gepaarten Gewindes, bestimmter Distanz, erzeugten Geschiebe-Spielpassung, (beliebig) langen Spindelwelle, erzeugten Kurzhub-Hydraulik aufsummierbar fokussierend zu erzeugenden enormen Druck-Kraftwirkungen, den der Gewindegänge Kolbengewinde- und Zylindergewinde-Druckflächen im (Gewinde-)Zylinder, ihrer Gegen-Seiten bzw. -Profilflächen abteilend erzeugten hydraulischen Geschiebe-Freigangraums, des erzeugten Hubvorgangs, die in diesen, trotz hoher (Zylinder-)Dichtigkeitspassung der (Gewinde-)Spindel mit zunehmenden Druck eindringende und über diesen allein abzuführende Hydraulik-Flüssigkeit, geregelt wird, in dem jeweiligen Innen-Gewinde- und/oder Außengewindegang spezifische Dichtungsvorrichtungen (bezogen des Gewinde-Profils, also proportional steigender Druckverhältnisse selbstdichtend arbeitende Dichtungen, bevorzugt V-förmiger Kerbung eingepresste Bandfederdichtungen) eingefügt werden,
• 6.1.1.2 - und zudem des Gewindes gebildeten Geschiebe-Freigangs dortigen zylinderseitigen Gewinde-Profilfuß entlang, der Gesamtlänge der Spindel bemessen, Abführungskanäle eingefügt werden, so dass steigender richtungsübertragender (Hydraulik-)Kraftwirkung/-en des erzeugten Drucks unvermeidlich in den (Zylinder-)Geschiebe-Freigang eindringende Hydraulikflüssigkeit (deren sonach, großer Spindellängen quasi statische Eigenschaften annehmend, die Abführung der eindringenden Hydraulik-Flüssigkeit allein der Freigangwendel ungenügende Funktionseigenschaften annimmt), einmal gem. Pkt. 6.1.1.2 kerbungsbildender (V-)Abdichtungen ein stetes Druckgefälle gewährleistend, und der Abführungskanäle, mithin einzusetzender Spezialventile, ein bestimmt zu steuerndes Druckgefälle, und/oder gesteuerten Absaugens der Hydraulikflüssigkeit, zeitlich präzise ein Unterdruck in Hubrichtung des Spindel-Kurzhub-Hydraulik-Geschiebes, die Druckkraft-Erzeugung der (Kolben-)Spindel verstärkend, zu erzeugen ist,
• 6.1.1.3 - dass die Spindelwelle, deren ihres Gewindes verteilt die Druckkräfte in Bewegungsrichtung fokussiert ihrer Spindel-Stirnfläche (Fläche/Querschnitt) übertragen werden, bevorzugt der Spindelwelle axial und/oder koaxial, d.h. ihres Kernstabes bzw. ihrer Kernwelle (bestimmt der Druckspannungsverteilung entlastet) ein Kanal oder Kanäle, und elektrisch isolierte oder (druck-)isolierende elektrische Leiter (Elektrode/-n, Stoffgemische, piezoelektrische, bzw., supraleitende Eigenschaften annehmende keramische, und/oder elektrische Sperrwirkungen und/oder zu Nichtleitern modifizierende und/oder >> hartschalig kemporös <<, spezieller Wolframcarbid-Gemische, verschmelzend [lasergesinterte und/oder Laser-Sputterings dotierte] Stoffverbindungen, inkompressible Flüssigkeit/-en, etc.), oder gesonderter Anwendungen optische (laser-Ilichtleitende) Gläser bzw., Leiter, direkt eingeschmolzen oder eingefügt werden,
• 6.1.1.4 - und/oder dass sonach dem Pressen-Körper elektrisch polar oder entsprechend angepasst, Kanäle und (Leiter-)Vorrichtungen eingeschmolzen oder eingefügt werden,
• 6.1.2 - dass die Spindelwelle der erzeugten Pressen-Vorrichtung, direkt als Stempel- bzw. Werkzeug-Vorrichtung ausgeführt wird, oder werden kann,
• 6.1.3 - oder dass separierbarer Stempel-Vorrichtung (bestimmt der Druckspannungsverteilung entlastet), der Stempel-Vorrichtung gleich Pkt. 6.1.1.4, entsprechend ein Kanal oder Kanäle eingefügt wird/werden, und isolierte elektrische oder (druck-)isolierende Leiter (Elektrode/-n, Stoffgemische, piezoelektrische, bzw., supraleitende Eigenschaften annehmende keramische, und/oder elektrische Sperrwirkungen und/oder zu Nichtleitern modifizierende und/oder hartschalig kernporös, spezieller Wolframcarbid-Gemische, verschmelzend [lasergesinterte und/oder Laser-Sputterings dotierte] Stoffverbindungen, inkompressible Flüssigkeit/-en, etc.), oder gesonderter Anwendungen optische (laser-Ilichtleitende) Gläser bzw., Leiter, eingepasst oder eingeschmolzen werden, so dass der Spindel-Kurzhub-Hydraulik hinzu der erzeugten Druckspannungskräfte, gleichlaufend isoliert Elektrizität zu übertragen ist,
• 6.1.4 - und dass sonach dem Pressen-Körper, der erzeugten Pressen-Vorrichtung, entsprechende Kanäle und/oder direkt elektrische Leiter-Vorrichtungen eingefügt werden.

6.1 The object of the invention is achieved by

• - that traditional screw thread technology, a (solid cylinder) rod of any length or lengthening, a spindle shaft is formed, the spindle external thread (screw pressure flank, or profile contact surface), and the cylinder internal thread (counter-contact surface), a certain thread clearance is generated with respect to each other, so that the thread has a linear freedom of movement (clearance space), the spindle shaft in the thread of the screw cylinder, forming a type of piston attachment, which is closed on the spindle drive, separating the attachment threads accordingly (preferably the fitting of executed thread profile approaches), and along the cylinder internal thread (contact surface), specifically placed, hydraulic bores are inserted, which act there as an input and also discharge channel for hydraulic fluid used, thus the (threaded) spindle shaft, together with its (threaded) cylinder (specific attachment distance of the piston thread and cylinder thread profile hydraulically generated against each other Sludge pressure surfaces, thus enormous, virtually arbitrarily hydraulically expandable force effects, which in a sense counteract infinitely long stackable thread turns), in addition to their screw mechanism, a hydraulic short-stroke device is generated,
• 6.1.1 - which respective hydraulic bore, from the outside in column and/or parallel connectable high-pressure pump system(s) of summable pressure force effects, the short-stroke spindle shaft of its thread distributed in the direction of movement, focused on its spindle face (area/cross-section), summing up virtually arbitrarily high compressive stresses (depending on the material, the dimensions and the die-like conversion device, quasi centrally focused counteractions) can be generated,
• - and that the generated spindle short-stroke hydraulics are preferably used to produce press devices,
• 6.1.1.1 - that in principle the enormous pressure force effects that can be summed up and focused by the linearly movable paired thread, a certain distance, a sliding clearance fit, a spindle shaft (of any length), the short-stroke hydraulics generated, the hydraulic sliding clearance space generated by the threads, the piston thread and cylinder thread pressure surfaces in the (threaded) cylinder, separating their opposite sides or profile surfaces, the lifting process generated, the hydraulic fluid penetrating into this with increasing pressure and being discharged via this alone, despite the high (cylinder) tight fit of the (threaded) spindle, is regulated, specific sealing devices (related to the thread profile, i.e. self-sealing seals that work in proportion to increasing pressure conditions, preferably V-shaped notch-pressed band spring seals) are inserted in the respective internal thread and/or external thread,
• 6.1.1.2 - and in addition to the thread formed by the attachment clearance, there are cylinder-side thread profile foot along the total length of the spindle, discharge channels are inserted so that increasing direction-transmitting (hydraulic) force effect(s) of the generated pressure inevitably in the (cylinder hydraulic fluid penetrating the free passage (which therefore assumes quasi-static properties due to long spindle lengths, the discharge of the penetrating hydraulic fluid to the free passage spiral alone assumes insufficient functional properties), once in accordance with point 6.1.1.2 of notch-forming (V-) seals ensuring a constant pressure gradient, and the discharge channels, thus using special valves, a pressure gradient to be controlled in a specific way, and/or controlled suction of the hydraulic fluid, a precisely timed negative pressure in the stroke direction of the spindle short-stroke hydraulic attachment, reinforcing the pressure force generation of the (piston) spindle, is to be generated,
• 6.1.1.3 - that the spindle shaft, whose thread distributes the pressure forces in the direction of movement and focuses them on the spindle face (area/cross-section), preferably axially and/or coaxially, i.e. its core rod or core shaft (determined by the pressure stress distribution relieves) a channel or channels, and electrically insulated or (pressure-)insulating electrical conductors (electrode/-s, mixtures of substances, piezoelectric or superconducting ceramics, and/or electrical blocking effects and/or modifying them to non-conductors and/or >> hard-shelled, porous <<, special tungsten carbide mixtures, fusing [laser-sintered and/or laser-sputtering-doped] material compounds, incompressible liquid/-s, etc.), or special applications optical (laser-light-conducting) glasses or conductors, are directly melted or inserted,
• 6.1.1.4 - and/or that channels and (conductor) devices are melted or inserted into the press body in an electrically polar or correspondingly adapted manner,
• 6.1.2 - that the spindle shaft of the press device produced is or can be designed directly as a stamping or tool device,
• 6.1.3 - or that a channel or channels are inserted in the separable stamping device (determined to relieve the pressure stress distribution), the stamping device equal to point 6.1.1.4, and insulated electrical or (pressure) insulating conductors (electrode(s), mixtures of substances, piezoelectric or superconducting ceramics, and/or electrical blocking effects and/or modifying to non-conductors and/or hard-shelled core-porous, special tungsten carbide mixtures, fusing [laser-sintered and/or laser sputtering-doped] material compounds, incompressible liquid(s), etc.), or special applications optical (laser-light-conducting) glasses or conductors, are fitted or melted in, so that the spindle short-stroke hydraulics can transmit electricity in parallel to the generated pressure stress forces,
• 6.1.4 - and that appropriate channels and/or direct electrical conductor devices are subsequently inserted into the press body of the press device produced.

• 6.2.1 - dass die spezifisch angepasste gesenkartige Wandlungs-Vorrichtung der erzeugten Pressen-Vorrichtung, in Anordnung einer mehrteiligen Synthese-Gefäßvorrichtung, einen innersten Synthese-Umwandlungsraum (vorstellungshaft, gemeinsam der Kurzhub-Spindel und Stempel-Vorrichtung, eine Art, des Gefäßes [auch kryotechnisch vorschrumpfend] höchster Dichte blasenfrei eingeschlossenen Beschickungsstoffe, dann auf diesen dynamisch steigend einwirkenden Drucks, mithin dynamisch rückwirkend verschließendes (Kolben-)Verdichtersystem), bildend, erzeugt wird,
• 6.2.2 - dass die gesenkartige Wandlungs-Vorrichtung, bestimmt mehrteilig anders konvexer Böden, und anders konvexer Gefäßdeckel, und diesen entsprechend bestimmt angepasster Gefäß-Wandungen (d.h. vorstellungshaft gestapelt elastisch tellerförmiger Sonderstahl-Fedem und nach innen Keramik-Federn die steigernder Druckspannung in die Gefäßwandung/-en hinein, anwesend äußere Gase in die der Deckel- und Böden ihrer Wandungen gebildeten Anschlusskerbung verdrängend, prägungsverdichtet werden), erzeugt wird,
• 6.2.2.1 - dass die Gefäßdeckel und Böden elektrisch isoliert (Kontakt-)Elektrodensysteme (oder als solche druckspannungs- und/oder temperatur-supraleitend, aufgebaut) eingefügt oder direkt eingeschmolzen werden und die Gesenk-Vorrichtung direkt als Temperatur-Erzeuger beschaffen, erzeugt wird,
• 6.2.2.2 - dass die der erzeugten Pressen-Vorrichtung als Stempel wirkende Einrichtung, grundsätzlich als Gefäß-Endverschluss und Umwandlungsraum-Verdichter-Vorrichtung erzeugt wird,
• 6.2.2.3 - dass die mehrteilige Synthese-Gefäßvorrichtung der gesenkartigen Wandlungs-Vorrichtung, der bestimmt erwarteten Druckspannung, keramisch elastischer Hochtemperatur resistenter Materialien (auch gegenwärtig der Raumfahrt lasertechnisch in Gebrauch geführter Wolframcarbid-Osmium und Technetium-Iridium dotiert, stabil temperaurbeständig ≥ 2700 C°, herzustellender oxid- und/oder silicidkeramischer Verbundstoffe), druckverteilend bestimmter Wandstärken, als Kompressionstopf-Vorrichtung, erzeugt wird,
• 6.2.3 - dass bevorzugt der innersten Kompressions-Topf-Vorrichtung, definierten Passung, anschließende Kompressions-Topf-Vorrichtung druckverteilend stärkerer Wandung druckspannungsentlastet, mindestens eine helikal gewundene, oder spinnenförmig verteilte (Graben-)Kanalvertiefung/-en, eingefügt wird/werden,
• 6.2.3.1 - dass diese/-r bedingt elektrisch leitende, chemisch exotherm reagierende Stoffverbindung, deren elektrisch initialisiert chemische Reaktions-Gase, (Kleinst-)Partikel gefüllt erscheinende Atmosphären, zu erzeugen sind, und die bei zunehmender Druckspannung und/oder Temperatur abhängig selbstinitialisierend reagieren, den Kanalvertiefungen eingefügt werden,
• 6.2.3.2 - dass die chemisch exotherm reagierende/-n Stoffverbindung/-en, deren elektrisch initialisiert chemische Reaktions-Gase, (Kleinst-)Partikel gefüllt in den Kanälen erscheinende Atmosphäre (getragen), bei zunehmender Druckspannung, elektrisch Lichtbogen ähnlich, und zunehmender Druckspannung der Kanalverengung, quasi bis auf Haarkanalstärke herab, Lichtbogenfäden-Erscheinung, und bestimmter Ionisation der (Kleinst-)Partikel, zeitlich relativ konstanter (elektrisch betriebener) Wärmeemission, bzw. bestimmter Temperatur, erzeugt und erhalten werden, aufgebaut wird,
• 6.2.4 - und dass sonach gruppierend, innere Synthese-Gefäßvorrichtungs-Anordnung keramischer Materialien, zeitlich bestimmt ausreichend Wärmestrahlung sperrend, reflektierend und (Wärmeleiter-Eigenschaften schicht-)isolierend, und äußere Gesenk-Vorrichtung, bestimmter Sonderstähle, erzeugt wird.

6.2 Furthermore, the object of the invention is achieved by

• 6.2.1 - that the specifically adapted die-like conversion device of the produced press device, in the arrangement of a multi-part synthesis vessel device, an innermost synthesis conversion space (imaginatively, together with the short-stroke spindle and stamp device, a type of vessel [also cryogenically pre-shrinking] of the highest density bubble-free enclosed feed materials, then on this dynamically increasing pressure acting, thus dynamically retroactively closing (piston) compressor system), is created,
• 6.2.2 - that the die-like conversion device, made up of several parts, with different convex bottoms and different convex vessel lids, and vessel walls adapted to these accordingly (ie imaginatively stacked elastic plate-shaped special steel springs and inward ceramic springs which increase the compressive stress in the vessel wall(s), displacing external gases present in the connecting notch formed by the lids and bottoms of their walls, are embossed and compacted), is produced,
• 6.2.2.1 - that the vessel lids and bottoms are fitted with electrically insulated (contact) electrode systems (or constructed as such to be compressive stress and/or temperature superconducting) or are directly melted in and the die device is designed directly as a temperature generator,
• 6.2.2.2 - that the device acting as a stamp of the press device produced is basically produced as a vessel end closure and conversion chamber compressor device,
• 6.2.2.3 - that the multi-part synthesis vessel device of the die-type conversion device, the certain expected compressive stress, ceramic elastic high temperature resistant materials (also currently the Space travel laser technology in use guided tungsten carbide-osmium and technetium-iridium doped, stable temperature resistant ≥ 2700 C°, oxide and/or silicide ceramic composites to be produced), pressure-distributing certain wall thicknesses, as a compression pot device, is produced,
• 6.2.3 - that preferably the innermost compression pot device, defined fit, subsequent compression pot device pressure-distributing stronger wall relieves compressive stress, at least one helically wound or spider-shaped distributed (trench) channel depression(s) is/are inserted,
• 6.2.3.1 - that this conditionally electrically conductive, chemically exothermic reacting substance compound, whose electrically initialized chemical reaction gases, appearing atmospheres filled with (small) particles, are to be generated and which react in a self-initiating manner with increasing compressive stress and/or temperature, are inserted into the channel recesses,
• 6.2.3.2 - that the chemically exothermic reacting substance compound(s), whose electrically initialized chemical reaction gases, (tiny) particles filled in the channels appearing atmosphere (supported), with increasing compressive stress, electrically similar to an electric arc, and increasing compressive stress of the channel constriction, down to the thickness of a hair channel, an electric arc thread appearance, and certain ionization of the (tiny) particles, temporally relatively constant (electrically operated) heat emission, or a certain temperature, are generated and maintained, is built up,
• 6.2.4 - and that thus grouped, inner synthesis vessel device arrangement of ceramic materials, temporally sufficiently blocking, reflecting and insulating (heat conducting properties layer) thermal radiation, and outer die device, certain special steels, is produced.

• 6.3.1 - dass der synergetisch wirkenden Spindel-Kurzhubhydraulik erzeugten Pressen-Vorrichtung aufbaubare/-n DruckspannungAen,
• - der gesenkartigen Wandlungs- bzw., Gesenk-Vorrichtung ihrer synthesestofflich beschickten Gefäßvorrichtung, und letzteren, ihrer keramisch inneren Zwischenwandung (bevorzugt spinnenförmig ausgeführten) eingepassten Kanäle, eingefügte (exotherm reagierenden) chemische Stoffverbindung,
• 6.3.2 - sowie der Pressen-Vorrichtung eingefügt elektrischen Leiter und (Kontakt-)Elektroden, oder die zunehmenden Drucks als solche wirkend, gleichwohl spezifisch modifizierten Tesla'schen Gleichspannungs-Induktions-Oszillatoren, d.h. elektrisch/mechanisch solitärer Wellen-Mechanik, elektrisch (frequenztechnisch) initialisiert, überlagert erzwungener chemischen Selbstzündung, exothermer Reaktion,
• - eine Art Durchschlag-Lichtbogen zwischen den Kontakt-Elektroden der Gefäß-Vorrichtung zeitlich erzwingend,
• 6.3.2.1 - den (Gefäß-)Beschickungsstoff räumlich, bestimmter Temperatur stabilisiert ((Synthese-)Stoffmenge/Trägheit) bzw., das flüssige Gas/Gasgemisch (Gay-Lussac-Gesetz), mechanisch maximal erreichbarer Dichte, oder gemeinhin den (Gefäß-)Beschickungsstoff auf die möglichst geringst räumliche Ausdehnung(-swert) reduziert, beschickt,
• 6.3.2.2 - frequenztechnisch emittierter solitärer Wellen-Mechanik erzeugter (Bogen- bzw., Mikrowellen-)Strahlungen, diesen rasch hinzu der chemisch erzeugten Wärme, hinzu anordnungsvereinigend hydraulisch anfahrender Druckspannungen (ansonsten klassischer Prozesse), fokussiert der innersten Gefäß-Vorrichtung, den Beschickungsstoff rasch erwärmend,
• 6.3.3 - fortsetzend der chemischen Reaktions-Gase, elektrisch temperaturabhängig (Kleinst-)Partikel gefüllt in den Graben-Kanälen erscheinenden Gas-Atmosphäre, der (Partikel-)lonisation elektrischer Änderung bzw., Lichtbogen-Änderung, gleichlaufend weiter steigernder Druckspannungen entstehender Verdichtungsdruckwärme, aufkommende Temperatur/-en, weiter der Lichtbogen-Kanäle zunehmender Deformations-Verengung, gewissermaßen bis auf Haarkanalstärke herab, sukzessiv verkettend Temperaturen von 1800 C° erzeugend und zeitlich bestimmt, synergetisch überlagernd Spitzen-Druckspannungen erhaltend,
• 6.3.4 - werden vorstehenden Verfahrens der Pressen-Vorrichtung ihrer Gesenk-Vorrichtung indirekt innersten (Synthese-)Umwandlungsraum eingefügt stofflichen Beschickung, Temperaturen ≥ 1800 C° der Stempelstirn > 110 t/mm², Verdichtungsdruckwirkungen von > 110 GPa, der Spindel-Kurzhubhydraulik über die Stempel-Vorrichtung maschinentechnisch (Gegendruck-Wirkung), erfolgreich normativ umgesetzt.

6.3 Analogously, the core task of the invention is thus solved by

• 6.3.1 - that the press device generated by the synergistic spindle short-stroke hydraulics can build up compressive stresses,
• - the die-like conversion or die device of its synthetic material-charged vessel device, and the latter, its ceramic inner intermediate wall (preferably spider-shaped) fitted channels, inserted (exothermically reacting) chemical compound,
• 6.3.2 - as well as the press device inserted electrical conductors and (contact) electrodes, or the increasing pressure acting as such, however specifically modified Tesla DC induction oscillators, ie electrically/mechanically solitary wave mechanics, electrically (frequency-technically) initialized, superimposed forced chemical self-ignition, exothermic reaction,
• - forcing a kind of breakdown arc between the contact electrodes of the vessel device,
• 6.3.2.1 - the (vessel) feed material is spatially stabilized at a certain temperature ((synthesis) material quantity/inertia) or the liquid gas/gas mixture (Gay-Lussac law) is fed to the maximum mechanically achievable density, or generally the (vessel) feed material is reduced to the smallest possible spatial expansion (value),
• 6.3.2.2 - frequency-technically emitted solitary wave mechanics generated (arc or microwave) radiation, this rapidly added to the chemically generated heat, to the arrangement-unifying hydraulically initiated compressive stresses (otherwise classical processes), focused on the innermost vessel device, rapidly heating the feed material,
• 6.3.3 - continuing the chemical reaction gases, electrical temperature-dependent (tiny) particles filled in the gas atmosphere appearing in the trench channels, the (particle) ionization of electrical change or, arc change, concurrently increasing compressive stresses arising from compression pressure heat, emerging temperature(s), further increasing deformation narrowing of the arc channels, down to the thickness of a hair channel, successively chaining temperatures of 1800 C° and time-determined, synergistically superimposed peak compressive stresses,
• 6.3.4 - the above process of the press device of its die device is indirectly inserted into the innermost (synthesis) transformation space material feed, temperatures ≥ 1800 C° of the punch face > 110 t/mm ² , compaction pressure effects of > 110 GPa, the spindle short-stroke hydraulics via the punch device mechanically (counterpressure effect), successfully implemented normatively.

• 6.4.1 - dass schematisch des entwickelten Bauart-Grundprinzips, bevorzugt vertikalen birnenförmig erzeugten (Säulen-)Pressenkörpers, direkt integriert zweier gegenläufiger Innengewinde-Zylinder,
• - sonach diesen zweier axial gegeneinander geführten Spindeln, eine großer Länge und Durchmessers, hohen Eigengewichtes aufweisend, erzeugten hydraulischen Kurzhub-Spindel, und eine die zu erzeugende Pressen-Vorrichtung beschickende, die Gesenk-Vorrichtung direkt, tieferer Temperatur eingepasst, aufnehmende untere Beschickungs-Spindel,
• - deren die Gesenk-Vorrichtung, in Arbeitsposition zentral des, die Innengewinde-Zylinder ineinander geführten, Pressenkörperteils platzierend,
• - dort somit resultierend höchster Druck- und Zugspannung belastet, entsprechend großer Wandmächtigkeit ausgeführt,
• - mithin von außen zugeführt und bedienter Hydraulikhöchstdruck-Systeme, und den Spindeln, polar, bevorzugt aber nur der unteren, eingefügter elektrischer Leiter-Vorrichtungen,
• - eine Pressen-Vorrichtung, kennzeichnender Dimensionierungen, aufgebaut wird,
• 6.4.2 - der Gesenk-Vorrichtung eingepasst elektrischer Elektroden-Vorrichtung, und eingefügt inneren keramischer Verbundstoffe aufgebauten Gefäßvorrichtung Stickstoff hoher Dichte befüllend verdeckelt, und der Beschickungs-Spindel in die Pressen-Vorrichtung einfahrend, in Arbeitsposition platziert,
• 6.4.3 - und dem (Synthese-)Zielprozess folgende Verfahrens-Systematik schematisch aufgliedernd,
• 6.4.3.1 - wird die der oberen gegenläufigen Gewindes aufgebaute Kurzhubhydraulik-Spindel ihrer vorgesetzten, als Geschiebe ausgeführten, scheibenringartig elastischer Vertiefungen nach außen zu verdrängenden (Anlauf-)Gleitfilms versehene Stempel-Vorrichtung, welche wiederum ihrer Stirn, ringförmiger Erhebungen, elastisch, die Gefäßdeckel in diese hinein prägungsverdichteter (Spindelschraubungs-)Druckspannung, und jetzt der zentral anders-konvexen (Elektroden-)Vorrichtungen fest kapselnd (prägungs-)verschließend, sowie hydraulisch anfahrenden Höchstdrucks in der Pressen-Vorrichtung einspannend,
• 6.4.3.2 - hiernach die chemisch exotherm, den inneren Gefäßwandungen eingefügte Stoffverbindung, der eingefügt elektrischen Leiter und als (Kontakt-)Elektroden wirkenden Teil-Vorrichtung, elektrisch (frequenztechnischer Gleichspannungsänderungen und Druckspannung) initialisierend, den inneren Gefäßraum seiner Stickstoff-Befüllung bestimmten Temperatur, der Gefäß-Schalungen isoliert entstehenden (Widerstands-)Wärme, die chemische Selbstzündung, und sukzessive eine Art Durchschlag-Lichtbogenerscheinung erzwungen,
• 6.4.3.3 - weiterführend des erzwungenen Lichtbogens, zwischen den Kontakt-Elektroden der Gefäß-Vorrichtung und der sich entwickelnden chemisch exothermen Reaktion, zeitlich (elektrisch/chemisch) modifizierend, den der inneren Gefäß-Vorrichtung bereits sehr hoher Druckspannung belasteten Stickstoff, nun frequenztechnisch einsetzender Ionisation der (Kleinst-)Partikel des Reaktionsgases, elektromagnetische (Bogen- bzw., Mikrowellen-)Strahlungen emittierend, beschleunigt einsetzend chemischen Wandlung erzeugten Wärme, hinzu hydraulisch aufsummierend fortführend anfahrenden Kurzhub-Spindel erzeugten (Gegen-)Druckspannungen, die StickstoffBeschickung jetzt rasch erwärmend,
• 6.4.3.4 - der (Kanal-)Bogenwandlung, gleichlaufend einsetzender Höchstdruckerzeugung der Spindel-Kurzhubhydraulik, elektrisch steigernder ReaktionsGeschwindigkeit sich ergebend, und nach innen (keramisch) reflektierten Wärmeemissionen, die Stickstoff-Beschickung verdichtend rapid erhitzend,
• 6.4.3.5 - nun der elektrisch erzwungenen chemischen Reaktions-Wandlungsgase, elektrisch bewirkter Lichtbogen-Änderung/-en, gleichlaufend weiter steigernder hydraulisch erzeugter Druckspannungen, so temperaturbestimmt der Lichtbogen in den (Graben-)Kanälen entgegen bewirkter Verengungen, quasi bis auf Haarkanalstärke herab (in diesen), Temperaturen von 1800 C°, mithin elektrisch zeitlich konditioniert, erzeugend und diese Temperaturen, synergetisch überlagernd, der unter elektrischen Änderungseinwirkungen entstehenden Spitzen-Druckspannungen, erhaltend, 6.4.4 - wird indirekt innersten (Synthese-)Umwandlungsraums eingeschlossenen Stickstoffs, synergetisch resultierender Verdichtungsdruckwirkungen von ≥ 110 GPa, letztendlich (druck-)mechanisch, polymerer Stickstoff erbrütet,
• 6.4.5 - und der Dimensionierungen der Pressen-Vorrichtung, ihrer Gesenk-Vorrichtung inneren Umwandlungsraums entscheidender Aufnahme-Menge, gleichlaufend verschmelzender Innenschalen (keramisch/metallisch), eine definierend laminierte Druckgefäß-Vorrichtung ausbildend, den polymeren Stickstoff, stabil, sowie form- und gestaltdefiniert bis zur Weiterverarbeitung oder Anwendung einschließend, dessen industrielle Erzeugung realisiert.

6.4 In the solution of the problem, the production of encapsulated polymeric nitrogen is preferably achieved by

• 6.4.1 - that schematically the developed design principle, preferably vertical pear-shaped (column) press body, directly integrated with two counter-rotating internal thread cylinders,
• - thus, a hydraulic short-stroke spindle produced by these two axially opposed spindles, one of great length and diameter, high dead weight, and a lower feeding spindle feeding the press device to be produced, which is fitted directly to the die device at a lower temperature,
• - whose die device, in working position, is placed centrally of the press body part in which the internal thread cylinders are guided into one another,
• - subjected to the highest compressive and tensile stresses, designed with a correspondingly large wall thickness,
• - hence externally supplied and operated high-pressure hydraulic systems, and the spindles, polar, but preferably only the lower, inserted electrical conductor devices,
• - a press device of characteristic dimensions is constructed,
• 6.4.2 - the die device fitted electric electrode device, and inserted inner ceramic composite constructed vessel device filling high density nitrogen capped, and the feeding spindle moving into the press device, placed in working position,
• 6.4.3 - and the (synthesis) target process following the process system,
• 6.4.3.1 - the short-stroke hydraulic spindle, which is constructed of the upper counter-rotating thread, is provided with its pre-mounted, disc-ring-like elastic depressions, which are to be displaced outwards (start-up) sliding film, which in turn is provided with its front, ring-shaped elevations, elastic, the vessel lids in these embossed-compressed (spindle screw) pressure stress, and now the centrally differently convex (electrode) devices firmly encapsulate (emboss) closing, as well as hydraulically starting maximum pressure in the press device,
• 6.4.3.2 - hereafter the chemically exothermic, material compound inserted into the inner vessel walls, the inserted electrical conductor and the partial device acting as (contact) electrodes, electrically (frequency-technical direct voltage changes and pressure voltage) initializing the inner vessel space to a temperature determined by its nitrogen filling, the (resistance) heat generated insulated from the vessel shells, the chemical self-ignition, and successively a type of breakdown arc phenomenon forced,
• 6.4.3.3 - continuing the forced arc between the contact electrodes of the vessel device and the developing chemically exothermic reaction, temporally (electrically/chemically) modifying the nitrogen already subjected to very high compressive stress in the inner vessel device, now frequency-technically starting ionization of the (tiny) particles of the reaction gas, emitting electromagnetic (arc or microwave) radiation, accelerating the chemical conversion generated heat, in addition to hydraulically summing up the (counter) compressive stresses generated by the short-stroke spindle that continues to move, now rapidly heating the nitrogen feed,
• 6.4.3.4 - the (channel) bend transformation, simultaneous generation of maximum pressure by the spindle short-stroke hydraulics, resulting in an electrically increasing reaction speed, and inward (ceramic) reflected heat emissions, rapidly heating the nitrogen feed by compressing it,
• 6.4.3.5 - now the electrically forced chemical reaction conversion gases, electrically induced arc change(s), simultaneously increasing hydraulically generated pressure stresses, so the temperature of the arc in the (trench) channels against the constrictions caused, down to the thickness of a hair channel (in these), temperatures of 1800 C°, thus electrically conditioned in time, generating and maintaining these temperatures, synergistically superimposing the peak pressure stresses arising under the effects of electrical changes, 6.4.4 - indirectly, the nitrogen enclosed in the innermost (synthesis) conversion space, synergistically resulting compression pressure effects of ≥ 110 GPa, ultimately (pressure-)mechanically, polymeric nitrogen is bred,
• 6.4.5 - and the dimensions of the press device, its die device's internal conversion space, decisive absorption quantity, concurrently fusing inner shells (ceramic/metallic), forming a defining laminated pressure vessel device, enclosing the polymeric nitrogen, stable, as well as form and shape defined until further processing or application, its industrial production is realized.

• 6.5.1 - dass der entwickelten (Kurzhubhydraulik-)Spindeltechnik, gern, vorstehend Pkt.
• 6.1 - 6.4 erörterter Bauartausführungen, erzeugten Pressen-Vorrichtung,
• 6.5.1.1 - axial und/oder koaxial, der Spindelwelle konisch verlaufend eingefügter (Kanal-)Bohrung, welche ihrer Dimensionierung/-en, selbst unter, in Hubrichtung, gegen das Gesenk der Spindelstirn aufsummierend erzeugten, Spitzen-Drucklast, des Spindel-Materials elastisch in deren Kernmaterial erfolgenden Druckverteilung, relativ entlastet verbleibend, diesen isolierte, spezifischer Materialien erzeugte elektrische Leiter eingefügt, oder eingeschmolzen werden, die selbst unter extremster Druckspannung, elektrische Leiter-Funktion erfüllen, oder solche (bestimmt dotierter Zonen) annehmen,
• 6.5.2 - und die der Gesenk-Vorrichtung, eingefügte Gefäß-Vorrichtung, (zweck-)bestimmt, gemäß erwarteter (Spitzen-)Druckspannung, keramisch elastischer Hochtemperatur resistenter Materialien, bevorzugt lasertechnisch in Gebrauch stehender Wolframcarbid-Osmium und Technetium-Iridium dotiert, sonach temperaturbeständig ≥ 2700 C°, herzustellender oxid- und/oder silicidkeramischer Verbundstoffe, gefertigt,
• 6.5.3 - mithin der Gesenk-Vorrichtung indirekt innersten Synthese-Umwandlungsraumes synergetisch Temperaturen von > 2100 C°, sonach wechselwirkend kurzzeitig bestimmt, wesentlich höher, analog maschinentechnisch (hinzusummierend) Drücke des höheren dreistelligen GPa-Bereiches erzeugend, zentral fokussierend überlagerungsdynamisch in (Gefäß-)Verdichtungsdruckspannungen wandelnd,
• 6.5.4 - so nur noch der verfügbaren Maschinenbaumaterialien/Materialfestigkeiten begrenzten Dimensionierung/-en der Pressen-Vorrichtung, und ihrer Gesenk-Vorrichtung, mithin spezifisch aufgebauten inneren (Synthese-)Umwandlungsraums, eine neuartige physikochemische Forschung, maschinentechnischer Realisierung, hergestellt wird.

6.5 Finally, the object of the invention is achieved in a variant reification by

• 6.5.1 - that the developed (short-stroke hydraulic) spindle technology, as described in point 6.5.1 above.
• 6.1 - 6.4 discussed design versions, produced press device,
• 6.5.1.1 - axially and/or coaxially, the spindle shaft conically inserted (channel) bore, which due to its dimension(s), even under the peak pressure load generated in the stroke direction against the die of the spindle face, the spindle material elastically in its core material pressure distribution, remains relatively unloaded, these insulated, specific materials produced electrical conductors are inserted or melted, which even under the most extreme compressive stress, fulfill electrical conductor function, or take on such (certainly doped zones),
• 6.5.2 - and the vessel device inserted into the die device, (purpose-)designed, according to the expected (peak) compressive stress, ceramic-elastic high-temperature resistant materials, preferably tungsten carbide-osmium and technetium-iridium doped in laser technology, thus temperature-resistant ≥ 2700 C°, manufactured oxide and/or silicide ceramic composite materials,
• 6.5.3 - thus the die device indirectly innermost synthesis-conversion space synergistically temperatures of > 2100 C°, thus interactively determined for a short time, significantly higher, analogous to machine technology (summing) generating pressures in the higher three-digit GPa range, centrally focusing superposition dynamics converting into (vessel) compression pressure stresses,
• 6.5.4 - so only the available mechanical engineering materials/material strengths limited dimensioning of the press device and its die device, thus specifically constructed internal (synthesis) conversion space, a new type of physicochemical research, mechanical engineering realization, is produced.

7. Preferably the developed functionally synergistic screw/pressure medium gear, pear-shaped press device system, and die-like conversion or die device modified as a high-temperature generator, preferably cryogenically pretreated, introducing the feed material, closing and dynamically focusing the press device centrally, positive energy conversion superpositions, (total compression) pressure to be generated, the dimensioning(s) of the press device, based on the generally known (optimization) experience of piston and spindle press devices, traditional thread technology (molds), material standardization and quality assurance, currently used Ledeburit technology (high-performance graphite/steel ball casting), and the dimensioning of the press device, device parts and arrangement components, based on the achievable high strength of the (Device) material, mechanically (total compression) stresses can be reliably generated up to the higher three-digit GPa range, based on standard tables.
7.1 The currently special graphite steel ball casting and automated high-precision heavy-duty machine components, thus the achievable dimensioning of the ultimately implemented (capacity volume) size of the ceramically insulated innermost conversion space of the die-like conversion or die device, the amount of feed material to be taken up, including cryogenic, time-determined (heat inertia, manageable (sequence analytical) determination of the synthesis or production run, synthesis products which require enormous compression forces and high temperatures of synthesis enforcement, procedurally once centrally acting on the machine technology and retroactively focused, and also concurrently (locally technically autonomous, maximally expanding the (compression force) performance of the system) high temperature to be generated there, the thermal expansion to be generated compressive stresses, and thus the emitted heat radiation, interactively building up, synergistically multiple superimposed, high and time-limited, very high temperatures, reliably implementable.
7.2 Spatially and temporally synergistically superimposed, the die device focusing on the feed material, summing up, is realized in a targeted manner in terms of machine technology and the temperature changes (thermal expansions), the (total) compressive stress to be implemented, ensuring an immediate "industrial" production of polymeric nitrogen, the developed press design.

8. According to the invention, the schematically disclosed press device design and the variations that can be derived from the process described, the direct production of ready-made encapsulated polymeric nitrogen is realized, the industrial production of this "plastic" alone, a quite enormous market economic value is secured solely for the mechanical engineering invention discussed here.
8.1 In polymeric nitrogen, all nitrogen atoms are linked by covalent single bonds Polymeric nitrogen can be safely bred or industrially synthesized at pressures above 110 GPa and temperatures of 1800 C°.
8.2 Polymeric nitrogen has a very high energy density, which means that during the transition from the singly to the triply bonded form, it naturally requires three shared electron pairs to reach eight-shells.

The reaction partner required for this, the (oxidizer) reaction already initiated in the usual way, releases approximately five times more energy than can be achieved with conventional solid propellants, and the most dangerous military (plastic) explosives currently in use.
8.3 Polymeric nitrogen itself, as a plastic and stable energy storage device, offers properties resulting primarily from the supply of a necessary reaction partner (oxidizer), thus as a (foil) insulating material that can be strongly charged electrically/electrostatically, thus as a (carrier) material, as well as directly as a component, integrated into electrostatic device and/or cascade generator systems, or designed as such climbing arch-like (breakdown stage) arrangement organizations, etc., thus basically electrically handled breakdown ionization(s), thus the further, differentiated ionization phenomena, the (component) materials used, conversion energies to be obtained, rough breakdown electrically determined expected doubling of the (explosive force) performance values, very far-reaching and quite extraordinary advantages.
8.4 Accordingly, this plastic, made up as an engine device or explosive, then a defined casing body device, has a wide range of applications, not only as a diergol rocket fuel for conventional use, in particular in various ways, and suitable oxidizers, such as ozone, to convert electric arc engines into super fuel, but also as polar electrostatic, as well as organic piezoelectric foils and metal shape memory alloys, supplemented to initialize, i.e. in the form of extremely compact (special) capacitor arrangements or cascade generator systems to be manufactured, i.e. for very fast or significantly increased altitudes reaching micro-, and/or high take-off acceleration force required ramjet or high take-off thrust for heavier small turbine missiles, then enabling these significantly greater ranges and/or large aircraft, thus also providing the currently developing private space travel, an enormous profit margin and production stock guarantee.
8.5 In particular, however, the explosive properties achieved by polymeric nitrogen at the energy density given, which is to be multiplied by electrical (breakdown) conversion, the possible (material) ionizations superimposed to produce (explosive) effects, is an exceptionally important high-performance explosive to obtain electrically.

Furthermore, the existing basic material procurement, the almost unlimited amount of raw material nitrogen, e.g. for the manufacture of armor-piercing micro-projectile shell cores for assault rifle cartridges, can achieve the same effects as the single-shot performance as compared to the effects of hard-to-obtain uranium core or uranium shell projectiles or current fist systems whose most modern slat/layer profiles are used to combat protected battle tanks.
Only encapsulated, ready-made polymeric nitrogen, which is then militarily possible to construct micro and small weapons, not only results in enormous increases in combat value compared to conventional weapons of the same (small) size, but the electrical/electrostatic properties of this plastic result in Tesla-like electrical/mechanical solitary wave mechanics, the most novel ways of generating EMP events, so that the industrial production of polymeric nitrogen, in terms of military technology, has extremely important, even decisive capabilities, and thus sovereign advantages in influence, economic power and resistance to displacement competition.
8.6 Nevertheless, the explosive properties, with appropriately adapted chemical/electrical initialisation, in the (construction) industry, particularly under constant and/or unchanging high to very high ambient pressure, in marine or deep-sea mining, where the decomposition of polymeric nitrogen removes bound oxygen from the sea water, are also indicated as a high demand for such a product here.
8.7 Given the market economy characteristics listed above, experience shows that demand is increasing significantly, the considerable sales volume that can be assumed from the outset for application and use research in the above-mentioned areas alone, long-term industrial processing, constantly growing yields, and a mass production requirement for ready-made polymeric nitrogen is virtually naturally secured in advance.

9. The physicochemical research that is to be carried out in the dimensions of the press device and the conversion space inside the die device, and thus the possible modification of the already low (bubble) pressure of the highly explosively reacting gaseous unsaturated hydrocarbon acetylene, which has a liquid and solid phase between - 81.8 C° and - 83.8 C°, to be controlled mechanically and thus to be investigated physicochemically (suppressing the formation of benzene and other phenomena), is, In its theoretically producible, pure modification, which is solid and stable at room temperature, comparable to polymeric nitrogen, the explosive power values would be exceeded by a calculable factor of 100.
9.1 The physicochemically prepared production of such a plastic would make it possible to manufacture electric propulsion arcjets and, for military purposes, new electrostatic designs for very fast missiles, micro ramjet engines, which can achieve several times the altitude of the most modern air fist systems at the same size, or comparable to the size of a conventional egg grenade, the explosive power of ~ 150 kg of dynamite, including cluster munitions, air ballistic (explosive) munitions, etc.
9.2 Tesla's electrical/mechanical solitary wave mechanics according to the publication EN 10.2014.011.801 adapted, following application of quasi-electrostatic energy conversion technology, the (micro) beam formation to be generated here, thus in application there named dynamically influencing charge separation systems, the accelerated (carrier) gas, positively feedback-rocking, directly the achieved (system) power, electrifying, thus in the form of highly compressed charge carrier propulsion beams of very high energy density (comparable to that which is currently achieved by high-performance lasers), to be generated chemically/electrically.
The achievable (jet) flow energy, where the speed energy is converted almost immediately into electrical pressure energy (field energy), the extremely high quasi-electrostatic charge to be generated further polar, the propulsion jets, on the one hand handy arrangements, wireless energy transmission (resonance/potential fluctuation) medium range, high energy densities to be transmitted, appropriate capacitor or conductor technology to be stored, and appropriately electrically initialized (frequency/potential fluctuation), to achieve suddenness, chained or synchronous, to force breakdown discharge(s), extraordinary (ionization) conversion energies, proportionally linked EMP power, are actually implementable.
9.3 Accordingly, such a plastic would be produced with the addition of suitable retarding explosives, a built-up capacitor-like device, suitable carrier particle materials and statically charged plastic balls or fragments, dampened primary detonation, centrifugal jets, penetrating the surrounding space in a targeted manner, generating a subsequent capacitor shell, a secondary explosion distributing polar-charged (ignition) oxidizer proportionally into it, concurrent electrical breakdown ionization/-ions (materials/carrier particles) of heat radiation, a briefly highly condensing shock wave, then the chemical reaction of the oxidizer, atmospheric oxygen, pulling in from the further, distant surrounding atmosphere, hard reversal of the direction of the shock, then following the next capacitor stage, another reversal of the direction of the shock forming a centrifugal jet, etc., finally a final explosion driving the oxidizer directly into the plastic of the final stage, i.e. multiple hard generating direction-changing shock wave phenomena, and in parallel electrostatically superimposing the electrical discharge phenomena (field pressure changes) generating EMP effects, according to which the system and the energies that can obviously be implemented, listed in the rough outline above, would make it possible to increase combat power that can currently only be achieved by nuclear means.
9.4 The physicochemical research that is to be based on mechanical engineering inventions will immediately open up a wide range of new applications for the plastics that can be synthesized, the primarily military, generally economic and therefore politically superior capabilities of which will of course be realized.

10. In the following, an embodiment for the mechanical generation of extremely high (total) compressive stress, focusing on volume-maximized conversion space, the die-like conversion or die device as a high-temperature generator enabling temperatures of 1800 C°, and the thermal expansion, gradual up to the higher three-digit GPa range of implementable (synthesis) compression pressure effects, of which the inner die shells, forming pressure vessels, remain pressure-sealed, is explained schematically.
10.1 The design scheme described under point 6, here a long spindle short-stroke hydraulic cylinder press device with a vertical bottle-like tower structure is produced.
10.1.2 The cylinder yoke press device is made of graphite steel ball casting and has a vertically long, completely wall-closed column cylinder.
10.1.3 The press device is hollow or column-cylindrical, bottle-like (imaginatively elongated pear-shaped) with a very long, narrow neck-like part and a wide main part, there centrally enclosing the die, performing centripetal work, very thick walls.
10.1.4 The lower column cylinder main part, the cylinder yoke press is provided with a (cast) internal thread, which is designed as a spindle, which serves only for feeding, with a large cylindrical shaft diameter, which is a special steel, sawtooth-like external thread, in the Casting of its pressure surface quasi in-acting curved thread track, ideally approximated pressure distributing effect (vectors/vector space), is inserted, this quasi forms an inner base of the column cylinder.
The feeding spindle is centered directly on the front of its shaft, and the recess of the die device is fitted.
The feeding of the die device, or the volume-maximized conversion space of the press designed as a closed column cylinder device, is basically carried out via the extended lower spindle.
10.1.5 The long, short-stroke spindle made of a special steel alloy, which acts axially against this (performing work) upper thick wall and then long tapered column cylinder, has a smaller diameter than the feeding spindle, is equipped with a thread running counter to this and has a stamping device placed in front of the linear attachment partially formed by the column cylinder.

10.2 The outer lower surface of the column cylinder part, which is set off by a thick wall, serves as the support for the vertical bottle-like tower construction of the cylinder yoke press device. This is supported by a substructure stand which is integrated into a steel girder floor structure, with a fixed connection. The steel girder floor structure, which is an external structure that surrounds the long column body in its total height, in turn supports the middle and upper parts, the hydraulic supply lines and components of the individual external hydraulic systems, as well as the upper worm drive devices of the long short-stroke spindle device.
10.2.1 The substructure itself is designed as a kind of turnbuckle-shaped machine element device that holds an elongated internally threaded cylinder element, which acts as a support and guide device of the lower spindle of the second screw thread shaft attached to it.
10.2.3 The turnbuckle-shaped machine element device simultaneously serves as a guide for the trolley-like lower (spindle) worm drive bus, the lower spindle of which, held in position for the purpose of die loading, is to be moved precisely into the lower column cylinder of strong wall thickness after loading the die and insertion into its shaft holder within a certain time window (the requirements arising from the synthesis process).
10.2.4 The lower spindle is constructed of a shorter cylindrical shaft, large diameter, a flat cylindrical flange part, which has an external worm drive gear ring, and on its other side, another narrow guide thread shaft, the spindle of which receives a movable rail-like guide in a turnbuckle-shaped machine element device.
In addition, the flat-cylindrical flange-like head of the lower spindle is provided with several circularly arranged holes, through which these individual machine screw connections (due to the transformation temperature required by the synthesis process) and external clamps that span the entire floor are screwed, which secure the thread of the spindle after it has been inserted into the lower press cylinder, relieving the corresponding compressive stress.
10.2.5 Opposite the lower spindle, hydraulic holes are inserted into the internal thread path of the lower column cylinder with a strong wall thickness, i.e. the thread of the lower spindle is deepened with a sawtooth-like profile (determined to provide the required hydraulic vector flow), with a corresponding distribution.
These serve there solely after completion of the synthesis process to hydraulically release the upper long short-stroke spindle, its smaller diameter, against the die fitted directly to the shaft of larger diameter, from the (thermally induced) thread wedging and to extend the spindle using the sliding film driven into the thread.

10.3 The die device, whose (insulating) ceramic inner vessel device(s) is formed as a type of multi-part piston compressor system, assembled into one another in a stacking pot-like manner, in accordance with point 6.2, the innermost conversion chamber to be filled with the feed material, is designed in an external form, in its contour description, slightly truncated cone-shaped.
10.3.1. The truncated cone or conical outer wall, which has a precisely defined (forming) angle relative to the shaft holder of the feeding spindle in accordance with the expected peak compressive stresses, is therefore precisely (proportionally) linked to the other internal die and vessel device parts.
10.3.1.1 The outer bottom and the other inner bottoms of the conical die and vessel devices are constructed with precisely defined profiles, slightly curved, the closure lid devices opposite, with precisely defined profiles (material thickness/change/distance/distances), spring plate-like curved shape.
10.3.1.2 Internal die and vessel devices each have on their inner wall a slight vessel wall reinforcement, a flared (lid) setting bead, superior to a vessel edge notch, and further a sealing ring.
10.3.1.3 Outer bottom, conical outer and inner Die and vessel devices have distributed notching grooves, the gases, condensates, etc. present in the interlocking devices are expelled from the inside to the outside, into the inner press device, with increasing compressive stress, before they are imprinted into each other to ensure absolute tightness.
10.3.1.4 Each spring plate-type closure cover is inserted into the respective vessel, first the setting bead, with increasing compressive stress in the notch and the vessel of the sealing ring in the outer vessel, this specific closure cover thickness according to the distance, further into the inner and the inner in turn into the outer die device, thus successively compacting it (whereby the bottoms are pre-stressed in each case and finally the inevitable residual gases that find themselves trapped, the expected peak compressive stresses of assumed notch displacements, remain negligible).
10.3.1.5 With the impression of the spring plate-like closure lids and the vessel bottoms acting against the innermost conversion chamber which is then filled with the feed material and closed, the compression system formed by the die, the plate-like springs acting as pistons, is executed.

10.3.2 The high-temperature generating function of the construction structure producing the die device are the vessel closure lids and disc spring-like bottoms, except for the innermost, ceramically insulated, electrically (contact) electrode systems, which as such assume superconducting properties with increasing compressive stress (so virtually independent of the prevailing temperature), the pressure, coated mixtures that ensure electrical non-conducting properties even under very high pressure and temperature, are doped directly centrally melted.
10.3.2.1 The innermost vessel closure cap is not made of an electrode, but of electrically non-conductive and technically almost incompressible ceramic composite material, designed as a closure plug stamp, which is provided with notched spacer bars.
10.3.2.2 The inner wall of the inner (ceramic) vessel device, which accommodates the innermost one, is designed with a thicker wall like the bottom and closure lid device and, starting from these, distributed centrally, in a spider-shaped arrangement, (trench) channel depressions are inserted.
10.3.2.3 An exothermic chemical mixture is pressed into the channel recesses, surrounded by another electrically conductive, heat-producing mixture whose resistance increases under pressure, the heat produced by the die device is synergistically obtained as a chemical/electrical temperature generator, preferably in accordance with section 6.2.
10.3.2.4 The mixture of substances is made of suitable components which promote arc-like (gas) phenomena under pressure and electrical excitation. The mixture of substances is thus chemically, with superimposed electrical energy, successively produced the expected temperature of about 1800°C through exothermic transformation processes.
10.3.2.5 The gases appearing during the transformation, together with the passing particles and the resulting (transformation product) particles, generate an electrically conductive channel arc atmosphere, which is to be generated under the increasing pressure stresses (hence the application of known methods) and the constrictions occurring against the channels, thus down to the thickness of a hair channel, then the electrically forced transformation with the passing particles, in addition to the electrically changing (atmospheric) resistance of the compression, the temperature surrounding the innermost vessel is to be leveled off over time.
The continuing thermal compressive stresses (propagation/heat conduction) interact, or retroactively focussed mechanical compression effects, against the nitrogen enclosed in the inner surrounding space, ultimately maintaining the expected temperature for sufficient incubation time.
10.3.2.6 The components, the chemical mixture(s) (introduced into the trench channels), the strands and sheaths formed, and the specifically added (mainly metallic) particles essentially predetermine and determine the high temperature generation.

10.3.3 The material of the die device is the temperature differences and compressive stress of specific special steels, the inner vessel devices respectively oxide and silicide ceramic composites, innermost tungsten carbide/iridium oxide (i.e. specific application, which is specified for high-temperature heat shields, a melting resistance of over 3000 C° for space applications), manufactured layer, pre-sintered and specifically adapted, laser sputterings doped glass ceramic surfaces, respectively coated.
10.3.3.1 Furthermore, the inner vessel devices and the vessel closure lids are thinly coated with a nanostructured release agent and their surfaces are partially cryogenically treated, which ensures that cold vapor permeability is ensured and condensate deposits are repelled.
XXX
10.3.4 In particular, the inner vessel (in which the innermost one is inserted) has a specifically laser-doped silicide ceramic glass coating on its walls. The coating is applied to both sides of the Wall of a kind of surface slag film (layer), each one a melt boundary layer is formed, whose quasi on the inner wall, in the trench channels, the chemically generated heat, which acts on the material's given thermal conductivity, outwards into the die, the feeding spindle and press, blocked, and/or at least sufficiently inhibited for a time, and the remaining (molecular) thermal bridges of the radiation penetrations, their effectiveness of heat transfer, sufficiently reduced.
10.3.4.1 Importantly, the specifically laser-doped coatings simultaneously reflect the electromagnetic thermal radiation of shorter wavelengths (along with the proportion of electrical (light) arc emissions) largely inwards, ie into the innermost vessel walls, where they are converted into heat by the laser-doped coatings and thus transferred further into the innermost conversion space, focusing on the nitrogen.

10.4 Process schematically, roughly dealing with the synergistically superimposed processes of the above-constructed machinery in their organization, the innermost ceramic synthesis vessel device, of which the innermost synthesis conversion space is formed, is specifically filled with liquid nitrogen at the highest pressure. The closure lids attached one above the other are then loosely inserted, the spindle is inserted into the inner press and completely locked in the press body.
10.4.1 The liquid nitrogen is continuously forming cold steam (for a certain time) even more permeable, and the innermost closure cover plug, its spacer webs and notched grooves are displaced into the inner press chamber.
10.4.2 The hydraulic short-stroke spindle by screwing, the stamping device placed in front of it (the respective centrally inserted electrode device here still relieves pressure), its inner flat ring-shaped front elevation, the attachment linearly torsion-free into the receptacle of the feeding shaft of the feeding spindle, moving against the closure device of the die, first experiences the innermost vessel of the closure cover of the setting bead with piston-like edge tightness closure.
10.4.3 The nitrogen filled into the innermost vessel, the shape of the closure cap, rising up its inner curvature, is centrically displaced and enters the spacer slots and notched grooves of the innermost closure plug without bubbles. 10.4.4 The nitrogen is pressed into the closure cap by simultaneously pressing the spacer bars into the notched grooves. The spindle tightening screw, innermost vessel, is successively sealed by the others via the closure caps arranged above it, and the increasing compressive stress, the die device.
10.4.5 After completion of the (press) screwing of the short-stroke spindle, hydraulically now increasing compressive stresses, the spring plate-like closure covers are embossed in the notches of the respective vessel wall and the acting compressive stress of the nitrogen clamps the spring plate-like bottoms against the nitrogen, in the walls, leaving only a certain spring play in the remaining free spaces.
10.4.5 Synchronously superimposed, the thermal conversion process is successively initialized by compression of the chemical mixture(s) inserted into the trench channels with increasing pressure.
10.4.6 Hydraulically further increasing pressure stress, the stamp device of a certain elevation, the electrode device in the closure cover and bottoms receive electrical contact, after which electrical tension, thermal conversion of the chemical mixture successively occurring temperature change, the temperature change of the now highly pressurized nitrogen begins to be forced.
10.4.7 The die is now closed as a piston-compressor system, acting on the nitrogen with elastic deformation, and successively giving the electrode devices function, the piston-compressor system of the punch device in the feeding spindle, systematically elastic compressions, generating directed compressive stresses, is firmly stamped inside.
10.4.8 Continuing to use hydraulic force effects, the stamping device placed in front of the long short-stroke spindle, elastic compression of the compressive stress exerted on the materials, the die acting as a closed piston compressor system on the nitrogen and in turn the nitrogen of the spring plate-like vessel bottoms in the shaft of the feed spindle, which elastically wedges these outwards ultimately into the closed-wall column cylinder of strong wall thickness, continuing via tensile stresses into the long column thread cylinder, and through this retroactive expansion, thus focusing back on the nitrogen, the die device now acting as a kind of double piston compressor system, the conversion compressive stress(s) required for the nitrogen synthesis, mechanically followed by initial thermal conversion, or, summing up expansion and forcing the interactions, the synthesis process is gradually achieved.
10.4.9 The heat generated by the increasing compressive stresses (material deformation, spatial compression, crystal lattice deformation, etc.) as well as the (trench) channels of the inner vessel, here inserted in the form of (coaxial) strands, encased in another, specific The chemical transformation is triggered primarily by the compression effects exerted by the compressive stresses and the ceramic vessel walls, against the inertia of nitrogen, whose surroundings quickly heat up like a shell.
10.4.10 Parallel to the heating, the electrical covering of the inserted electrical (contact) electrode systems (polar field system) is started, superimposed on certain frequency-related direct voltage changes, the chemical mixture strands (conductivity), electrical voltage pressure, forcing the chemical conversion of the (compressive stress) heat, receives in the certain distributed trench channels entering (breakdown) discharges, surrounding the innermost vessel like a shell, or rather on its surface, interacting to create a kind of arc phenomenon (a melt layer shell that forms at high temperatures, primarily the acting compressive stresses, stabilizing), chemical/electrical realization.
10.4.11 The mixture of components contained in the chemical exothermic transformation is slowly increasing the temperature of the liquid nitrogen, the shell-like heat spread, a certain narrow temperature range (the complex value and depending on the amount of nitrogen charged, simplified as a tipping moment description), the thermally increasing compressive stresses, further adjusted in parallel electrical excitation of the arc phenomenon on the innermost vessel surface, chemically/electrically against the enclosed nitrogen of the (total) compressive stresses interacting forced heat generation, the enclosed nitrogen is now rapidly brought to high temperatures.
10.4.12 Interacting, continuously continuing energy transformations, accumulating in the innermost vessel wall, result in the nitrogen settling at the expected temperature of ~ 1800 C° after the peak temperature has been reached there.

10.4.13 Sequentially, the appearing channel arc atmosphere, primarily filled with the contained (metallic) particles, stabilizing the arc phenomenon against increasing (channel arc atmosphere) resistance, maintaining the leveled temperature, the compressive stresses stabilizing at the reached level, also leveling off the compression force effects exerted on the enclosed nitrogen, which is now electrically maintained in the arc phenomenon, the temporally (pre-)determined breeding period.
10.4.14 The arc phenomena forced between the contact electrodes of the vessel device and the developing chemically exothermic reaction, temporally (electrically/chemically) modifying, focused on the already very high compressive stress in the deposit, i.e. nitrogen retained in a quasi-liquid plasma state, the surrounding vessel wall, the arc channels, the (tiny) particles of the reaction gas now generated by frequency-technical arc change, emitting electromagnetic (arc or microwave) radiation, the vessel wall of its layer structure and coatings converting into heat, is focused against the nitrogen (thermal expansion), hydraulically the short-stroke spindle built up (surface) compressive stresses of 112 t/mm ² of the column cylinder press body retroactively, the die-like Conversion device, synergistically interacting at a temperature of ≥ 1800 C°, which generates a compression pressure effect of > 110 GPa, mechanically incubating polymeric nitrogen, enclosing the inner die shells, forming pressure vessels, and pressure-sealing the conversion device as a whole.

QUOTES INCLUDED IN THE DESCRIPTION

This list of documents listed by the applicant was generated automatically and is included solely for the better information of the reader. The list is not part of the German patent or utility model application. The DPMA accepts no liability for any errors or omissions.

Cited patent literature

• WO 0216676 A1 [0005]
• JP 2006175297 A [0007]
• CN 101912749 B [0007]
• CN112158814A [0007]
• EN 102014011801 [0026]

Claims (3)

Device system generating extremely extreme compressive stresses and high (synthesis) temperatures for the direct encapsulation of physicochemical products, characterized in that a) - a screw gear, preferably a flat thread system, the spindle shaft and the cylinder internal thread have a thread clearance fit with respect to one another, linear freedom of movement (clearance), thus a set of attachments with a certain short-stroke freedom of movement is generated, and preferably pressure medium bores are inserted in the screw cylinder, so that a pressure medium gear is generated in a functionally synergistic manner with the screw gear, b) - wherein bulkhead-like cam devices which are directly controlled or moved by the pressure medium are preferably fitted into the wound (solid material) profile of the hollow screw cylinder, so that according to the invention essentially single-link-like compartments are generated, and each compartment is given a pressure medium bore, so that single-link-like pressure medium gears are wound around the spindle in the form of a coaxial piston rod. are summed up, c) - thus, any external extension of this system, an infinite number of individual-link-like pressure medium gears can be summed up, d) - and that this functionally synergistic screw/pressure medium gear, a preferably pear-shaped mortar-like casing body, a (press) device is created, the supplemented suitable valves and piezo elements, thus from the outside virtually any number of switchable power machines, hydraulically coupled to the piston rod, usually a stamping device placed in front of it or directly linked to it, solely depending on the available mechanical engineering materials/material strengths, directed to convert the most extreme (internal) tension pressures, can be generated, Device system generating extremely extreme compressive stresses and high (synthesis) temperatures for the direct encapsulation production of physicochemical products, according to Claim 1 progressively characterized in that a) - that further a die-like multi-shell conversion device, and its (multi-)shell-like structure in the schematic principle, preferably a (tubular) sleeve and multi-member (compression) spring plate devices formed sleeve closures, a hermetically sealable compression chamber is formed centrally, which is fed with liquefied, liquid or gaseous (raw) materials, hermetically seals them at high to very high (pre-)pressure, b) - that this die-like multi-shell conversion device, its (material) structure and inner (die) shells, at least one intermediate shell, preferably a rib element system, illustrative of an endoskeletal structure manufactured and very high compressive stresses directed centrally, precisely determinable volume reductions, and under certain temperature influences inner die shells fusing, forming a pressure vessel with very high toughness when cooled, c) - that the multi-shell conversion device ((pipe) sleeve and (compression) spring plate closures), at least one intermediate shell (preferably a rib element system) is specifically structured, channels are formed and chemical substances/mixtures of substances are inserted into these channels, whose specific pressure and/or electrically initialized, differentiated chemical reduction and/or reaction, exothermically high to very high (synthesis) temperatures are generated, d) - that initialized chemical reaction, aerosol atmosphere and/or plasma and/or liquid arising in the channels, simultaneously defined as mechanical/electrical waveguides, electrical/mechanical, synchronous electrical inductive and self-inductive, electrically solitary wave mechanics, electro-chemically precise temperatures (of a specific period/s) are generated, Device system generating extremely extreme compressive stresses and high (synthesis) temperatures for the direct encapsulation production of physicochemical products, according to Claim 1 and 2 progressively characterized by a) - and that after this, the pear-shaped mortar-like (press) device system, preferably only one electrically/mechanically solitary wave-mechanical conductor device, thus the conversion device, contact electrodes are inserted, b) - that finally, in parallel with the (press) device system, quasi serially any number of power machines that can be connected, functionally synergistically directed, the most extreme to the most extreme compression pressure effects are generated and, focally inserted into the conversion device, high to very high or extreme energy densities of synthetic materials receive conversion production, c) - whereby according to the invention, essentially, parallel to the conversion device, fusing inner shells, preferably specifically structured rib element system metallic/ceramic, a defining laminated pressure vessel device is formed, the physicochemically produced or hatched product of which is stable, as well as defined in shape and form enclosed until further processing or application, d) - hence an industrial production of encapsulating and packaging polymeric nitrogen, and generally a novel physicochemical product research, long-term dimensionally stable, high to very high, or extremely high energy density synthetic materials, is realized mechanically.