US 2008/0155985 A1 · Heat Energy Recapture And Recycle And Its New Applications

A plurality of new processes for maximizing benefits from fuels and/or from heat sources/supplies, and a plurality of corresponding new devices in support of the new processes, all inter-related to form part/component for and appurtenant to and assembled into a power plant, for the production of electricity, hydrogen, deuterium, all kinds of fuels, glass, ceramics, metals, distilled water, drinking water, irrigation water, heating air, and other concomitant products,

wherein, a heat-hungry cold humid compressed air is used serving as external heat energy collector and made to undergo thru low temperature first stage, thru high temperature second stage, and thru super-high temperature third stage scavenger heating processes before it is finally released to pass thru a gas power exhaust turbine, and exits thru a radiator chimney that interacts with second stage beaters to re-use the recaptured heat energy to drive the same power exhaust turbine;
wherein, for its energy scavenger mission, and as a first stage heating-up of the compressed air while still cold, a plurality of low temperature heat emitting radiator tubes of:—freezers, chillers/coolers, air conditioners, refrigeration units, dehumidifiers, food processing/cooking/barbecue ovens, stoves, and lamps,—are submerged or inserted to crisscross the flow of compressed air inside heat absorbing radiator pipes/tubes which are also exposed to solar heat, solar traps, direct sunlight, warm water on the tropical ocean, warm atmospheric air of summer, warm air in the tropical regions, hot air from the fireplaces, hot air in the attic of houses, warm water from hot springs, warm waters from volcanic lakes, hot air created by all kinds of lamps, hot air created by the kitchen stoves, warm waters/steam created by underwater detonation of hydrogen bomb or other bombs, condensation devices/towers, and other heat sources;
wherein, as a first stage heating of the compressed air while still cold, the cold compressed air is used to condense the hot steam expelled by fuel cells, by steam engines, and by steam turbines—in reverse flow, by inserting individual steam exhaust heat-emitting tubes into/inside each corresponding heat-absorbing cold compressed-air radiator tubes,—in order to recapture the heat energy from the steam, and to recycle the distilled water into the boiler, into the electrolysis machine to re-feed the fuel cells and into drinking water;
wherein, as a first stage heating of the compressed air while still cold, a plurality of cold heat-absorbing radiator pipes/tubes are placed crisscrossing the air flow inside the downstream section of the exhaust tailpipe/chimney of the subject power plant,—in order to condense the steam, recapture the water that has been sprayed into the intake mouth of the compressor, and to recycle the heat energy;
wherein, the first stage cold compressed air duct/header pipe from a compressor of the power plant, has multiple branches, each provided with shut-off gate valves, each branch communicated to a plurality of heat energy absorbing radiator pipes/tubes,—for free selection of the various available heat sources of lower temperature at regulated air flow;
wherein, before compression, as a new process of making the air more compact, more dense, more humid, more heat-hungry, more turbo-charged, and to have more expanding power, the air is passed thru cold foggy tunnels being mist sprayed with water, and distilled water is also mist sprayed at the intake mouth of the compressor;
wherein, for second stage heating of the compressed air, and for maximum utilization and maximum commercialization of the created partnership between the turbine engine and the heat absorbing/collector pipes or tubes of my prior arts,—the heat collector pipes/tubes are used to absorb heat energy from:—solar heat on land as well as on the ocean, solar heat from solar traps, beat energy from the fireplaces, trash burners, geothermal heat sources, cooking ovens, exhaust chimneys of power plants, exhaust tailpipes and hot-air/water of cooling systems of various kinds of engines, warm waters of the ocean, warm water of geothermal lakes, warm grounds of the desert, warm air of the summer atmosphere or tropical regions, warm air from inside the attic of houses, hot air/water from cooling systems of nuclear power plants, hot air from smelting plants, hot air from glass/ceramic smelting ovens, warm air from factories, hot water and steam created by underwater and underground detonation of hydrogen bombs, or other bombs, hot gases/steam created by electric plasma torch, hot gases created by fusion torch fueled by deuterium, hot gases created by air-blast burning of powdered organic matter, powdered charcoal, powdered cock, powdered wood/news-paper, dried grass/leaves, carbon, incinerators, and all other heat energy sources;
wherein, for maximum recovery/recapture/recycle from the various heat sources/suppliers, the hot air/steam/water are confined/forced to run thru various types/kinds of tubes/pipes/conduits/air-ducts placed inside the heat absorbing pipes/tubes,—in order that the heat energy is placed in close encounter/contact with the heat collector cold compressed air inside the pipes/tubes that absorbs the heat energy;
wherein, as a second stage heating of the compressed air, smelting plant furnaces are submerged in compressed air inside large pipes/tunnels,—and the compressed air is in reverse flow against the flow of the annealing process to recycle the heat energy from the annealing chamber for distilling water and other industrial needs;
wherein, for maximum absorption of heat energy, the individual branches of heat emitting pipes/tubes that contain warm/hot air/steam/water are submerged in running cold compressed air inside each corresponding individual heat absorbing radiator tubes/pipes in reverse flow;
wherein, for maximum absorption of heat energy, the hot upstream section of the heat energy supply pipes/tubes are place inside the hot down stream section of the heat energy absorbing pipe, while the downstream low temperature section of the heat energy supply pipe is placed inside the cold upstream section of the heat absorbing compressed air pipe in reverse flow;
wherein, for maximum utilization of heat energy, the super-hot energy supply is used to interact with materials/heat-collectors that need high temperatures in smelting furnaces, while the lower temperature downstream tail heat energy is used to interact with cold compressed aid and materials/heat-collectors that need or able to absorb low temperatures, like solar heat;
wherein, cold compressed air is used to condense water vapor, the steam expelled by fuel cells, and the steam expelled by steam turbine/engine—in producing distilled water—to recapture and recycle the heat energy contained in the hot steam,—in combination with smelting, power generation, and re-generation of hydrogen and deuterium;
wherein, the electric generator is made to produce direct current electricity for use in the electrolysis of heavy water for production of deuterium, triterium, and hydrogen for fuel in the smelting furnaces and internal combustions engines where the deuterium is subjected to electric arc;
wherein, for easier construction, a plurality of hot radiator tubes containing hot compressed air are coiled in zigzag form across the flow of cold compressed air inside a large heat absorbing pipe, the hot zigzag tubes being started at the down stream end of the heat absorbing pipe;
wherein, the various first stage branches of the heat collector radiator pipes/tubes are communicated to a central header air duct/pipe which serves as depository from the various first stage branches and which also serves as hub for the second stage heat absorbing branches into the higher temperature heat energy supplies and sources;
wherein, among the higher temperature second stage heat energy supplies and sources are:
exhaust tailpipes of internal combustion engines, exhaust chimneys of gas turbine engines, smelting furnaces for metals, smelting furnaces for glass/ceramics, annealing lehr of glass, exhaust pipes from fuel cells, Geothermal wells, exhaust pipes from engines fueled by hydrogen-deuterium-triterium, exhaust chimneys of fusion smelting furnaces fired by electro-plasma torches, exhaust chimneys from smokeless trash burners, exhaust chimneys fueled by coke, cool, wood, charcoal, and organics, hot steam from underwater detonation of hydrogen bomb—by means of electric arc, by means of confined dynamite into the liquid deuterium, and by means of compression by drop hummer,—into which high temperatures, a plurality of heat absorbing radiator pipes/tubes are submerged and the hot radiator pipes are inserted inside the cold heat collector pipes,—in the process of collecting heat to energize the compressed air that run the gas turbine;
wherein, after the compressed air has been pre-heated thru the first stage, the heat collector air duct pipes/tubes are divided into plurality of routes, branches, and small tubes, and are exposed to higher temperature heat energy supplies listed in the preceding paragraphs, including into the tail/pipe and exhaust chimneys of the same gas turbine engine to which the same heat collector pipe is in partner with;
wherein, all the second stage higher temperature heat collector pipes are communicated to deposit hot compressed air into a 3rd stage heating central header power duct/pipe, in which the hot compressed air is further subjected to a hydrogen-deuterium-electro-plasma-fusion torch to provide more heat into the compressed air;
wherein, to prevent meltdown of the 3rd stage heating pipe, same pipe is enclosed/engulfed by a larger pipe which contains/supplies high pressure cold high humidity water-misted-air that gets into the down stream end of the 3rd stage heating pipe, for more expanding power of the 3rd stage header power pipe;
wherein, the hydrogen-deuterium fuel is super pre-heated thru the engines tail pipe and thru it's own plasma flames before it gets out from the fuel tube and then into exposure to electric arc environment at the plasma furnace to attain fusion firing in the third stage heating inside the central hot air header duct;
wherein, in the effort to maximize benefit from hydrogen-deuterium as fuel, same fuel is passed thru fusion reaction processes instead of just reacting it with oxygen;
wherein, in the effort to capture the heat energy produce by the hydrogen bomb, it is detonated in deep waters to trap the fusion heat into lower temperature in the water to produce steam and hot water,—as means to create more heat sources;
wherein, the down stream end of the 3rd stage central hot air header duct is communicated into the intake of the exhaust Power Turbine to push the blades of the turbine in full power and effect, same turbine drives the compressor that supplies compressed air into the whole heat absorbing radiator pipes/tubes systems of the power plant, and same power turbine also drives a Direct Current electric generator, without regulating the voltage output—hereby extremely emphasized;
wherein, the electric generator is made to produce direct current used to run multiples of electrolysis machines which do not require a steady voltage,—to re-supply the Power Plant with hydrogen-deuterium fuel which is stored for commercial world market for various engines, desalination, and other purposes, and for fuel of the succeeding fusion reactions in this subject power plant;
wherein, a major portion of the branches in the 2nd stage heating of the heat energy collector pipes are placed inside of and parallel with the main exhaust chimney, in multiple tubes, to recapture the heat expelled by the power turbine;
wherein, a plurality of tailpipes, from a plurality of internal combustion piston engines, are inserted into and made to expel hot gases into the upstream section of the exhaust chimney of the gas turbine engine in order to recapture the tailpipe heat energy of the internal combustion engines;
wherein, the internal combustion piston engines, gasoline/diesel, are provide with at least two hybrid long electric arc sparkplugs in each chamber, and are fed with hydrogen/deuterium to attain fusion inside each chamber to produce more heat, and the electrolysis machines are driven by the engine's DC generators directly without voltage regulator to produce hydrogen/deuterium being fed into same engines to reduce gas/diesel consumption—for more mileage per gallon of fuel;
wherein, the generated DC is directly passed thru the electrolysis machines for production of hydrogen/deuterium fuels, and also directly passed thru the coils of the magnets of the electric generators,—before connection to the power-grid;
wherein, a plurality of heat absorbing radiator tubes/pipes are placed inside the exhaust chimney of the power plant:—(1) to drive a reciprocating piston engines, which drives a compressor that supplies compressed air into its own heat collector pipes,—such as a steam engine or a sterling engine, (2) to drive/run a secondary gas turbine engine that generates DC electricity, and (3) to provide hot air for heating buildings and houses;
wherein, a wood/trash distillation oven is placed inside the downstream section of the exhaust chimney of the power turbine and the distillate organic gas is superheated and fed as torch fuel to burn lumps of coal and lumps of organics into the combustion chamber inside the central hot air duct for 3rd stage heating;
wherein, a water boiler is placed into the downstream section of the exhaust chimney to distill heavy water for used in the electrolysis that produce deuterium for the fusion processes for the production of heat energy;
wherein, in the process of condensation, the heat energy from the hot water vapor is recaptured by the first-stage heat absorbing pipes to pre-heat the cold compressed air of the power plant;
wherein, a conveyor being loaded with trash is placed inside the downstream section of the chimney to dry the trash—that serve as fuel for the power plant;
wherein, in order to detonate a hydrogen bomb underwater to produce more heat for the power plant, the liquid deuterium is confined in a glass capsule provided with multiple electrodes, and the glass is enclosed by strong steel container without air gap, and the electrodes are connected by highly insulated electric wire conductors to the main high voltage DC electric source, in order to fire abundant electric arc thru and across the liquid deuterium by remote control, the glass serving as insulator;
wherein further, in order to detonate a hydrogen bomb underwater in the efforts to produce more beat to run the power plant, the liquid deuterium is contained in a soft metal container wrapped by reinforcing fiber glass rope/strings, and is surrounded by abundant charge of dynamite which is in turn contained by a strong steel container of about 6 to 12 inches thick, and then the dynamite is blasted by remote control wires,—to effect violent implosion upon the liquid deuterium;
wherein, in order to detonate a hydrogen bomb, liquid deuterium in soft metal container is compressed by a drop hummer that blast a dynamite on top of the deuterium,—in the efforts to create more heat supplies for the power plant;
wherein further, in order to detonate a hydrogen bomb underwater to produce more heat energy to run the power plant, the distilled heavy water is confined in a forced electrolysis chamber without air gap/space to make sure there is zero chance of expansion during the process of electrolysis, and the water is colored so that the separation line of the liquid deuterium above the water is visible, and then the liquid deuterium is heated up by electric arc until fusion is attained;
wherein firer, water and mercury are used serving as sealant to confine and to seal hydrogen, deuterium and triterium in a container—order to prevent the gasket at the outlet from being dissolved by the hydrogen;
wherein, the water vapor from the underwater detonation of hydrogen bomb is condensed into drinking water and into irrigation water—by the heat collector pipes/tubes, while the helium gas is compressed inside pressure container;
wherein, in the efforts to produce more heat energy to run the power plant, a ball of compacted charcoal, graphite, and carbon, enclosed/wrapped in soft metal, is placed at the lower section of the liquid deuterium before detonation—in order to melt and compact the carbon during the fusion blast and solidify into crystals of diamonds upon cooling, the diamond serving as among the principal by-products of hydrogen bomb detonation in deep waters;
wherein, in the effort to used the ocean for deep water hydrogen bomb detonation, the power plant/house is made floating on the ocean, carried by/ridding on an ocean platform made of crisscrossing empty pipes/bamboos, and crisscrossing stiff walls with top cover plate forming an empty box to trap air and to contain various kinds of air containers, empty bottles, sausages of air containers, pipes and bamboos, same platform serving also as carrier for agricultural lands, power house, habitation homes/buildings, and for floating ocean windmill farms;
wherein, a secondary gas turbine engine, run by recaptured heat from the exhaust chimney or tail pipe of the main engine, is used to compress air to turbo-charge the main engine and to produce more hydrogen/deuterium fuels;
wherein, the cold water at the ocean bottom is used to cool the air before getting into the compressor, and then, the warm waters on the ocean's surface is used to pre-heat the compressed air after coming out of the compressor by means of the heat absorbing radiator tubes and pipes,—as means to provide more heat energy supply to the subject power plant;
wherein, a solar trap covers the ocean surface to hold more solar heat into the ocean waters and to prevent the wind from stealing the heat energy from the ocean, serving as means to provide more heat energy for the power plant, the solar trap made up of at least two levels of transparent sheets of roof to allow the solar heat to get in;
wherein, an array of a plurality of shinny narrow strip reflectors are each spacedly laid on one edge, disposed at North-South orientation on top of the solar trap's roof, held by a controlling device that timely manipulates and tilts the reflectors according to the morning and the afternoon sun—in order to maximize solar penetration into the solar trap,—to provide solar power on land or on the ocean;
wherein, to produce more heat energy supplied to the power plant, hydrogen bombs are detonated underwater in sustained firing by a submarine boat loaded with abundant torpedoes that carry hydrogen bombs which are fired upon an underwater target impact wall in regular succession to boil the ocean water directly under the floating power plant;
wherein, in the efforts to produce more heat energy supplied to the power plant, underwater detonation of hydrogen bombs in regular sustained firing is done by an underwater large cannon gun fixed in place which regularly fires large deuterium bullet bombs upon an underwater target impact wall built deep in the river bank or sea coastline.
wherein, further, in the efforts to produce more heat supply for the power plant, the deuterium bullets are made into regular size bullets that fits a hand gun or a machine gun which fires to detonate fusion bullets at regular intervals upon a target impact wall in a dry enclosed oven into which a pump shoots liquid deuterium or capsules upon the fusion fire to maintain continuous fusion flame inside the furnace;
wherein, further, in the efforts to produce more heat supply for the power plant, an electro-fusion plasma torch in a non-electric conductor container is submerged in a non-conductor distilled water to prevent short circuit of the high voltage DC supply and to prevent meltdown of the torch serving as boiler while in the process of smelting various kinds of materials—including molded/cast large sections of chambers, house/building components and house cubicles made of glass, to name a few, and the smelting heat energy is recaptured by the heat absorbing compressed air in radiator pipes/tubes;
wherein, further, to produce more heat energy for the power plant, a pump-gun shoots high pressure deuterium just in time into the fusion flame created inside the fusion plasma torch to subject the new deuterium to the high temperature to attain continuous fission reaction without too much electric arc consumed;
wherein, further, to produce more heat energy for the power plant, hydrogen gas jet is blown upon a molten sand/rock and/or metallic ore to reduce the materials into pure/refined form of glass/ceramics or metals, in which smelting process, the hydrogen is oxidized by grabbing the oxygen from the ore, thereby producing large amounts of heat which is absorbed by the heat-absorbing radiator pipes;
wherein, further, to produce more heat energy for the power plant, the oxygen air supply for a trash burner is pre-superheated thru tubes submerged into the fire before the oxygen air is released near the fuel by pressure nuzzles at the end or at the top of the trash, the oxygen tubes having multiple side nuzzles to distribute the oxygen around the combustion chamber to burn all gas fumes;
wherein, further, to produce more heat energy for the power plant, a catalytic converter oven heated by the hydrogen/deuterium electro-plasma torch—is made to form part of the main third stage heating power pipe before the power turbine,—to recapture the heat energy produced by the catalytic converter;
comprising:
a power exhaust turbine, as prime mover, connected to a drive shaft, having an air inlet and an air outlet connected to a main exhaust chimney;
a turbine compressor driven by the power turbine thru the drive shaft, having an air intake mouth and an air outlet;
an electric generator driven by the power turbine thru the drive shaft, having magnets with variable magnetic field, made to produce direct current, placed in-between the turbine compressor and the power turbine;
the power turbine, by way of the drive shaft, drives the compressor and the electric generator, thereby forming a power plant assembly;
a main first stage header cold air duct having an inlet communicated to the outlet of the turbine compressor, serving to contain cold compressed air produced by the compressor, and having a plurality of outlets branches;
a plurality of major pipe branches, each having control gate valves, each having an inlet and an outlet, and each inlet connected to the corresponding outlet of the main header cold air duct;
an assembly of parallel, multiple, first stage heat absorbing radiator pipe tubes, having an inlet communicated to the outlet of each major pipe branch, and having an outlet;
a steam engine and a fuel cell communicated to contribute hot exhaust steam into a common steam header tail pipe having multiple outlets;
a plurality of heat emitting hot steam tubes, each tube having inlets connected to each outlet of the header tail pipe, serving as branches of the steam engine's tail pipe, each having a downstream end;
each hot steam tube inserted into the downstream end of each corresponding individual heat absorbing compressed air radiator tube in reverse airflow, and coming out at the upstream end of each heat absorbing tube,—in order to condense the steam into distilled/drinking water;
a distilled water receiving header pipe communicated to the downstream ends of the hot steam tubes, having an outlet;
a distilled water storage tank communicated with the outlet of the distilled water header pipe, serving as distilled water storage which supplies distilled water to a boiler of the steam engine, and to a water misting device at the air intake mouth of the compressor, for turbo-charging;
a plurality of low temperature heat energy supplies, some of which are solar, warm water of the ocean, warm grounds and air of the desert, exhaust from chillers, freezers, fireplaces, geothermal heat, including but not limited to hot water created by under water detonation of hydrogen bomb, to name a few, into which the first stage heat absorbing radiator tube assemblies in the other branches are exposed to;
a hot main second stage header air duct having a plurality of inlets into which the outlets of the assemblies of the first stage heat absorbing radiators are communicated to, and having a plurality of outlets;
a plurality of assemblies of second stage heat absorbing radiator pipes/tubes having inlets communicated to each corresponding outlet of the hot main second stage header air duct, serving as second stage branches, and each having an outlet;
a plurality of high temperature second stage heat energy supplies and sources, some of which are already listed in the preceding paragraphs, including but not limited to, hot steam from underwater detonation of hydrogen bomb, hot air from smelting plants, hot air from organic trash smokeless burners, hot air from engines and power plants main exhaust chimneys, etc.,—into which, each corresponding branch assembly of second stage heat absorbing radiator pipes/tubes is exposed to;
a plurality of the second stage heat absorbing radiator pipes placed inside of, parallel to, and along the length of the main heat exhaust chimney in reverse air flow,—to collect energy from the chimney and made to discharge hot air into the third stage heating header hot air duct;
a third stage header hot air duct, having multiple inlets communicated to the outlets of the second stage heat absorbing radiator pipe assemblies, and having an outlet;
a plurality of high temperature heat energy suppliers, some of which are charcoal/coke/coal burners, powdered carbon blast burners, gas/oil/organic gas burners, hydrogen/deuterium electro-plasma fusion reactor,—placed inside the third stage header hot air duct for final super-heat up and power boasting upon the compressed air;
the outlet of the third stage header hot air duct connected and communicated to the air inlet of the power exhaust turbine;
a multi-coil main heat exhaust chimney, having an inlet connected and communicated to the air outlet of the exhaust power turbine, serving as exhaust main tailpipe of the power plant, and having an outlet;
a reciprocating piston hot gas engine driving a push and pull electric generator, having;
a piston rod interconnecting a larger power piston with a smaller compression piston driven by the larger piston;
each piston fitted with appropriate size of chamber, each chamber having reciprocating valves, and having an inlet and an outlet;
an assembly of heat absorbing radiator tubes placed inside the main exhaust chimney, having a header inlet pipe and a header outlet pipe;
the inlet header pipe pierces the chimney and communicated to the outlet of the compression chamber;
the outlet header pipe pierces the chimney upstream of the inlet header pipe and communicated to the inlet of power chamber;
the hot air exhaust from the power piston is communicated to the second stage header hot air duct for recycle of the heat energy;
a plurality of hybrid internal combustion engines fueled with hydrogen-deuterium, made to produce more heat energy for the power plant, provided with long-arc sparkplugs, made to produce hydrogen-deuterium fuel, each having a hot tailpipe that pierced into the main exhaust chimney to contribute hot gases into the chimney for heat energy recycle;
at least one hybrid sparkplug, having multiple prong anode adjusted to have long-arc jump of about one centimeter spark arc jump or no anode at all,—installed in each combustion chamber of the IC engines to create fusion fire by the deuterium fuel,—to produce more heat energy for the power plant;
at least two of the longitudinal second stage heat absorbing pipes made to discharge hot compressed oxygen-air into the charcoal/coke/cool burning chamber;
an assembly of heat absorbing radiator tubes, placed inside the chimney, having an inlet and an outlet header pipe, each header pipe pierces out thru the chimney and correspondingly communicated to an outside turbine compressor and to an outside power turbine.—to run a secondary, power plant;
an assembly of heat absorbing radiator pipes, placed inside the chimney, having an inlet and an outlet header air duct, each header air duct pierces out thru the chimney, the radiator supplied with cold compressed air thru the inlet duct by a compressor of a third gas turbine engine, the compressed air heated/energized inside the radiator then moves out thru the outlet header duct which delivers the heated compressed air that kicks/pushes the exhaust power turbine of the third gas turbine engine that drives the compressor, and a plurality of air ducts tightly communicated to the exhaust of the power turbine serving to distribute heating air into houses/buildings near the power plant;
a distractive distillation chamber for wood and organics placed inside the chimney, having and inlet door and an outlet pipe that pierced out thru the chimney to exit organic vapor supply by pipe for torch fuel into the trash, coke, coal burner,—to produce more heat energy for the power plant, and as a heat recycle process;
the wood distillation chamber produces charcoal used in the smelting plants for glass and steel to further produce heat energy for the subject power plant;
a horizontal axis carousel bucket looped chain conveyor loaded with trash for drying,—placed inside the down stream end of the chimney—for more fuel;
an upper inlet door and a lower exit door at the elbow bend of the chimney, made for loading trash on the carousel, and for unloading trash down into a bin;
a plurality of hybrid cyclone dust separators having in inlet air duct air-tightly connected and communicated to the main chimney's outlet thru a common header air duct connector, and having an outlet;
each cyclone dust separator comprising;
a vertical axis drum body, having a top lip, a bottom lip located at a distance equal to its own diameter below its top lip, and having an inside wall;
a top cover plate air-tightly fastened to the top lip of the drum, having a large central hole, and a bottom face;
a vertical air exit chimney, serving as a continuation of the main exhaust chimney, having an open bottom below the top of the drum at about at least two thirds of the height of the drum, air tightly attached thru the center hole of the top cover plate, having an open top end air outlet;
a spacious bottom chamber created by a bottom cover air tightly fastened to the bottom lip of the drum, having a bottom door exit for dirt;
a plurality of spaced radial vertical instilling walls, having a top edge attached to the bottom face of the top cover plate, an outer vertical edge attached to the inside walls of the drum, a bottom edge attached to the bottom cover of the drum, and an inner vertical edge set backed at about at least four times the diameter of the vertical air exit chimney;
the instilling walls having a horizontal width of at least two-third of its height to, make a spacious instilling chamber for the dust to settle down;
and
a plurality of outwardly inclined floors attached to and in-between the radial vertical walls, in multilevel floors;
a horizontal zigzag smoke cleaning chimney, having an elbow inlet air-tightly communicated to the open top end air outlet of the cyclone's exit chimney, and having an air outlet, and serving as continuation of the main chimney, comprising;
a flat floor, a flat roof, and side walls interconnecting the floor with the roof, forming a box air-duct;
a series of roof air deflector walls, spacedly attached hanging from the roof across the air flow, with at least two feet clear from the floor;
a series of floor air deflector walls erected on the floor and in-between the roof deflector walls, across the air flow, with at least two feet clear from the roof;
a rough surface sheet attached to the roof facing down, serving as ceiling;
a rough surface sheet facing the air flow attached to the walls and floors;
a high pressure water pipe attached to the ceiling lengthwise, having multiple transverse branches and multiple downward branches;
a plurality of water mist spray nuzzles facing the rough surface walls and ceilings, spacedly communicated to the branches of the water pipe;
the floor inclined to one side, having a waste water collection gutter that drops the water down thru a drain hole;
a horizontal spiral chimney, serving as dust collector and smoke cleaner that makes the exhaust air executes a spiral flow inside the chimney, having an inlet air-tightly communicated to the air outlet of the zigzag chimney, comprising:
a large elongated air pipe/duct, made long enough depending upon the quality of exiting air out from it, having an outlet;
a spiral fin attached to and around a central straight closed pipe that serve as support structure of the fin, forming a fin assembly;
the fin assembly inserted and placed centrally and longitudinally inside the large air pipe;
a plurality of pressurized longitudinal water pipes, having misting nuzzles attached to every quarter along the central pipe structure, to wet all the internal walls of the spiral chimney, to catch the smoke and dust;
a tall vertical chimney to create vacuum, having an inlet air-tightly communicated to the outlet of the spiral chimney, and having an outlet serving as final exit of the waste air of the power plant;
a plurality forced electrolysis machines, without allowance for gas expansion, that produce liquid deuterium directly without compressor, driven by the DC current output by the power plant—to supply deuterium to the electro-plasma torch inside the 3rd stage heating duct of the power plant;
and
a hybrid bottle/container serving to store the liquid deuterium produced by the force electrolysis machine, having water and mercury serving as sealant at the inlet and outlet, and having a bent outlet pipe manipulated with an inlet submerged in/out of water/mercury,—to remove leakage of hydrogen fuel,—as hydrogen dissolves all organic seals.

118 more elements

A new apparatus used for maximizing benefits from deuterium fuel by detonating a hydrogen bomb in deep water in accordance with claim-1 or claim-13, wherein, an abundant electric arc is passed thru across the liquid deuterium, comprising;

a hydrogen bomb of liquid deuterium contained in a glass and ceramics, and non-conductive container having at least two holes on opposite sides;
a metallic electrical conductor, molten and baked as plug into each hole, serving as positive-negative electrodes, and serving as electrical contact points at both sides of the container;
a pair of rail wheels attached to each side of the container serving to carry it on rails;
a pair of heavy steel inclined rail track, serving to carry the bomb by its wheels and to conduct electric direct current, and having at least one electrical contact points at each lower end of the rails which extends to the middle of the detonation water;
a feeding underwater port made of large pipe containing the rail track, having two spaced alternating air tight gate values thru which the bomb are successively fed by rolling down the rail, and down to the detonation spot;
an electrical insulator in the form of rubber/ceramics/glass baked-coated around each rail to prevent short circuit thru the water;
a vertical dry service manhole communicated to the feeding port, having stairways and high voltage power supply heavy cable wires and an elevator, serving as access to the feeding port;
a heavy current main switch, above the manhole and above the water, serving to detonate the bomb upon it gets to the contact points at the ends of the rail;
a large high voltage capacitor connected to the electric cable wires supporting electric power for the electric arc inside the bomb;
a heat insulator flexible containment wall surrounding the detonation water, having embedded empty air containers, to make the wall float on water, and serving as support posts to the upper structures;
a corrugated multi-hole/perforated flame distributor dome placed in the deep detonation water but spaciously above the detonation spot and within the containment walls;
a deepwater platform, serving as containment floor, upon which the heat insulator walls, and the distributor dome are erected, placed well below the detonation spot, serving as heat insulator separating the hot water from the ordinary cold water in the deep;
a plurality of rubber tubes with compressed air attached/laid on the middle section of the floor made flexible to absorb the shock of the blast;
a crisscrossing array of salt resistant walls, forming boxes under the floor, serving as main structure of the water platform in which glass is used as among the salt resistant materials for the walls, some in the form of pipes for floating;
a heat insulator laid on top of the floor surrounded by the containment wall;
a metallic/glass/ceramics plate, resistant to salt action, placed and air-tightly attached to cover the top of the boxes formed by the criss-crossing walls;
the boxes having no air leaks, serving as floater for the whole apparatus;
a plurality of empty waste bottles, bamboos, pipes, and other air containers,—all filled up with compressed air, placed inside the boxes to make sure there are floaters even the air escapes out of the boxes;
the underwater platform/floor extended outside the containment walls serving as anti-oscillation wide-face device against the action of the water waves;
a rain water and distilled water placed to fill up the tank formed by the containment walls, serving as electrical insulator for the electric arc, and also serving as catcher for the fusion flames;
an air inlet and air release valve provided on each floater pipe in the underwater platform, to adjust the submergence of the apparatus;
a gas turbine engine, having an exhaust power turbine, that drives a turbine air compressor, and also drive electric generator that produce direct current, the power turbine and the compressor turbine having an inlet and an outlet;
an electrolysis machine that produce deuterium and hydrogen in liquid form directly by confined electrolysis,—which is run by the direct current and connected to the generator;
a header cold compressed air pipe having an inlet communicated to the outlet of the turbine compressor, and having multiple outlet branches;
a plurality of multi-coil pipes heat absorbing radiator above the water, having lower coil and upper coil, each having an inlet communicated to some of the branches of the header pipe and filled up with compressed air by the compressor, and having an outlet communicated to exit the heated compressed air thru the exhaust power turbine;
a plurality of the heat absorbing radiator pipes, having an inlet communicated to some of the outlet branches of the cold compressed air header pipe, and extended down into the hot boiling waters, and having an outlet;
a hot air header pipe having an inlet communicated to the outlets of the heat absorbing radiator pipes, and having an outlet communicated to the inlet of the exhaust power turbine;
an exhaust header tailpipe from the exhaust power turbine, having branches communicated to multi-pipe heat emitting radiator pipes;
a plurality of multi-coil pipe heat emitting radiator pipes correspondingly coiled and individually inserted into inside each of the heat absorbing radiator pipes,—in reverse air flow;
an upward exhaust chimney outside the radiators, communicated to and serving as terminal header pipe for the heat emitting radiator pipes;
an electro plasma fission oven installed into the down stream end section of the heat absorbing header radiator pipes, to add power to the compressed air before exiting thru the power turbine;
the multi-coil heat absorbing radiator pipes extended over and above the boiling hot water above the detonation spot, wherein the lower are exposed directly to the rising steam, while the cooler upper coils are exposed to the upper cooler steam;
an extension of the containment wall above the water, enclosing the rising steam, pierced on one side by the heat absorbing radiator pipes, serving as a steam chamber, having a top cover;
a multiple hanger structure supporting the heat absorbing radiator pipes attached to the top cover of the steam chamber;
a least one lower temperature steam concentration header pipe communicated thru the top cover of the steam chamber, having an outlet serving as low temperature steam exit into a condensation device that supplies a distilled water tank;
a distilled water supply tank, outside the steam chamber, elevated above the ocean water, having an upper inlet connected to the condensation chamber, and having a lower outlet main pipe communicated to the boiler detonation chamber by piercing thru the containment wall;
an automatic water supply valve regulated by a floater pipe, placed floating in the boiler chamber;
the floater pipe contains water to have enough weight to pull up the water supply valve by a rope thru pulleys above the tank;
a plurality of carrier floaters in the form of sausages of empty bottles, air containers, bamboos, and pipes,—attached to carry the whole apparatus and the water supply tank above the ocean water;
a plurality multi-coil condensation pipes communicated to the outlet of the steam exhaust header pipe, exposed to the cold wind having multiple bottom coil water outlets;
each condensation coil pipe having an outlet;
a condensation box chamber communicated to the outlets of the condensation coil pipes, having a bottom outlet, lower side end outlet for steam, and an upper side end outlet for helium and having a plurality of perforations on two side walls facing the wind;
a water receiving pipe communicated to each bottom coil water outlet of each condensation pipe, and having an outlet communicated to the condensation box chamber;
a plurality of horizontal wind pipes piercing thru the perforations of and across the condensation box chamber serving to further condense the excess steam;
the wind pipe attached to the perforated side walls by welds and clamp-knots to prevent water leaks;
a compressor pump communicated to the upper outlet of the box to suck and to compress helium from the condensation box, having an outlet;
a helium tank communicated to the outlet of the compressor pump, serving to receive helium gas produced by the hydrogen bombes, having a regulated shut-of value;
a water drop-off having a gate value communicated to the bottom water outlet of the condensation box, having an outlet;
a distilled water tank, having a top communicated to the outlet of the drop-off pipe, and having a gated bottom outlet pipe communicated to the upper inlet of the water supply tank;
at least one electrolysis machine producing deuterium fuel for the succeeding hydrogen bombs;
and
an underwater DC transmission line feeding a step-up transformer coupled with an inverter to match the power to the utility grid.

49 more elements

A new apparatus for maximizing benefits from fuel in accordance with claim-1, wherein, the oxygen air supply is pre-supper heated and distributed into the flames and into the trash fuel by a plurality of multi-nuzzle burner pipes tapering into the combustion chamber, and wherein, the trash is burned from the top or from one end of the trash pile, comprising:

a combustion chamber drum made wide enough to accommodate an array of oxidizer-burner pipes, having oxygen inlet perforations at its upper/outer section, having a trash-end lip, an air inlet end with perforated cover plate, and a side exhaust hot air outlet;
a plurality of elongated oxidizer-burner tapering perforated pipes arranged parallel together vertically or horizontally in even spacing, having an inlet communicated to each corresponding perforation hole of the cover plate of the combustion chamber, and each having an end outlet nuzzle;
a fresh oxygen air supply duct/pipe spaciously surrounding the combustion chamber, having a bottom air inlet way down below the combustion chamber, having an outlet made spaciously beyond the cover plate of the combustion chamber, and having a trash entrance door;
a heat insulator outside the oxygen-air supply duct/pipe around the vicinity of the combustion chamber;
a plurality trash burning container/drum, each having an outer lip fitted to air-tightly cover the trash-end lips of the combustion chamber, having closed bottom plate and filled up with compacted trash;
a conveyor and merry-go-round carousel spacedly holding the trash containers in individual holders equipped with feeding arms which successively push each trash container to cover the trash-end lip of the combustion chamber, and to pull out the trash drum when empty;
a trash loading been at the other side of the carousel serving to load and compact trash on each trash drum;
a gas torch tube coiled around the combustion chamber containing gas fuel from distilled wood/organics, serving to start firing the trash until ignition is sustained;
and
a heat energy exhaust duct/pipe/manifold having an inlet communicated to the heat exhaust outlet of the combustion chamber, and having an outlet communicated to a common chimney with other heat energy supplies.

7 more elements

A new structural design for constructing an ocean platform that carry various kinds of power plants including fusion energy and solar heat, and further serving to carry transmission power lines, ocean windmills, ocean homes and buildings, desalination apparatus, agricultural/human settlements, and solar traps,—in the efforts to maximize utilization of the heat energy of the warm waters of the ocean, the solar heat, and for maximum benefits from fuel,—in accordance with claim-1 or claim-31,

wherein, a plurality of parallel pipes/chambers laid side by as first layer are inter-clipped together by another layer of pipes/chambers laid side by side on top of and perpendicular to the first layer of pipes, thereby forming a crisscrossing rigid floater pipe platform;
wherein, the upper layer of pipes is over-lain by transparent plates, glass/concrete slabs and metal plates, serving as rigid floor for airports, and serving as transparent roof for the solar trap;
wherein, the assembled platform further serves as transportation carrying various kinds of loads, including those already listed above and agricultural lands;
wherein, the layers of pipes and the floor are made transparent to allow the solar heat radiation heat-up the layers of pipes and also heat-up the ocean water, the layers of pipes and floor serving as solar trap;
wherein, additionally, the crisscrossing pipes also serve as vacuum-water-mist evaporation chambers for distillation process in the production of distilled water;
wherein, a plurality of air-cooling pipes are submerged in cold water brought-up by water pumps from the ocean deep;
wherein, the cold air, after being mist sprayed with water, is feed into a compressor which drives the cold compressed air into the layers of floater pipes and into a plurality of heat absorbing radiator pipes submerged into the warm waters on the surface of the ocean to provided heat-expanding power to the compressed air;
Wherein, the resulting hot compressed air is accumulated to a hot header pipe communicated to the inlet of a power exhaust turbine that drives the compressor and an electric generator, thereby forming a power plant;
Wherein, a hydrogen-electro-plasma torch is fired inside the hot header pipe to provide more expanding power of the compressed air;
Wherein, the exhaust chimney from the power turbine is coiled underwater below the solar trap to heat up the water that heats up the compressed air inside the heat absorbing radiator pipes;
Wherein, the transparent roofs that trap the solar heat into the ocean water are in the form of transparent empty pipes and thin transparent bottles floating on the water laid close to each other side-by-side to exclude the cold wind from touching the warm ocean water;
Wherein, a plurality of evenly spaced strips of shinny solar reflectors laid on one edge, disposed North-South, and adjustably attached on top of the solar trap roof are manipulated to drive the sunlight down into the trap and down into the ocean water,—by tilting East in the morning and tilting West in the afternoon;
Wherein, the heat absorbing pipes are set into the warm waters of the ocean below the solar trap pipes;
and
Wherein, the power plant is loaded on the ocean platform.

12 more elements

A new structural design for an ocean transportation used as a shuttle boat in the efforts to maximize benefits from fuel and maximum utilization of the hybrid fusion engine of claim-1 or claim-2, and from the heat energy of the warm waters of the ocean as source of heat energy, in accordance with claim-1 or claim-33, comprising;

a plurality of horizontal bamboos vertically stacked and clipped together to a vertical thin rear post on one side, and another similar stack of bamboos clipped together on the other side of same post, with all butts on same post, serving as hull for a boat;
a pair of boards or metal/plastic plates disposed vertically inclined, having each outer edge jointed together and the inner edges disposed apart and attached enclosing the vertically stacked butts of the bamboos,—serving as pointed nose at the rear of the boat;
a front thin post located at the two-third point of the bamboos, serving to clip together the two stacks of bamboos near the tips;
a flat rope and multiple string/wire clip tied near the tips of the bamboos to form a pointed hull of a boat;
a pair of vertical thin flat plates disposed face to face, serving as clip and as post to hold in place the assembled stacks of bamboos, serving as alternative assembling device for the bamboo hulls;
a strong rope/wire attached to the wire clip near the tip and tautly attached to the post clip at the butt of the bamboos, in order to bend-up the tip of the bamboos to form a first bent-up bamboo hull, having a top and a butt;
a second hull similar to the first hull, coupled with the first bamboo hull;
a rear transverse structure inter-connecting the two hulls together at the rear post by the top of the hulls;
a front transverse structure interconnecting the two hulls together at the two-thirds point front post by the top of the hulls;
and
a flat deck made of bamboos laid on top of the transverse structures inter-connecting the two hulls,—thereby making a low cost double hull boat that can be easily made by the poor fishermen;
and
the boat used for carrying passengers, water, and other cargoes by providing it with a hybrid fusion engine in accordance with claim-1 or claim-2 for power propulsion, and by attaching to it a flying kite as sail,—in the efforts to service the ocean floating power plants and floating communities or ocean human settlements.

10 more elements

A new device for maximum benefits from fuel and maximum utilization of the hybrid fusion engine in accordance with claim-1,

wherein, a water agricultural shallow tank/box bed for growing algae coupled with a shallow filter tank is constructed floating on water or freshwater lake, carried by various kinds of floater devices, and having an underwater floor filled up with fertile soil or fish/chicken manure, for the production of algae, comprising:
a larger tank/box bed filled with a layer of fertile soil, enclosed by water-tight walls/floor to prevent intrusion of outside muddy water and to prevent escape of the clear water;
a water made brackish and diluted with small percent of salt placed filling the tank to a deep of at least two feet;
a second smaller tank with water tight floor and walls, integrally attached to the larger tank, having a floor filled up with layers of coarse gravel, pea gravel, sand, and fine soil, serving as water filter;
a water gate between the two tanks allowing filtered clear water to get back to the larger tank;
the floor of the larger tank being continuous and extended to and serving as floor of the smaller tank, and having a bottom face;
a plurality of crisscrossing walls under-laying the floor and air-tightly attached to the bottom face of the floor,—forming a plurality of box air tanks—as floaters carrying the tanks;
a water pump, a plurality of suction pipes, and a plurality of discharge pipes,—all assembled together to transfer/filter the water to make it clear and returned back to the larger tank;
a good appropriate variety of algae and water plants planted on the fertile soil/mud on the floor for food production;
a compressor assembled with discharge pipes set up to supply atmospheric compressed air to the under-laying box air tanks thru distribution nipples, and to supply carbon dioxide to the algae;
a plurality of cages filled with fish and placed into the water around the suction perforated nipples to supply carbon dioxide for the growing algae;
a plurality of vacuum chambers attached to the side walls of the tanks, serving to carry the tanks, and further serving vacuum food dryer to dry the algae;
and
a hybrid fusion engine set up to drive the compressors, water pumps, and the vacuum pumps,—see FIG. 27.

11 more elements

A new device for maximum benefits from fuel and maximum utilization of the hybrid fusion engine in accordance with claim-1, wherein, a floating platform serves as human settlement floating on water with complete utilities and food production industries, comprising:

a deep water tank coupled with a shallow water tank carried by various kinds of floaters, including bamboos, empty used containers, pipes, and crisscrossing walls, to name a few, made floating on a body of water or ocean;
a higher elevation platform integrally connected to the water tanks, serving as support base for a house or building as home on the ocean;
a hybrid fusion engine installed beside the building on the higher platform supplying power for the whole platform;
a plurality of selected species of fishes are placed to grow into the deep water tank, making it a fishpond;
a sand filter placed on the floor of the shallow water tank;
a fertile soil made up of waste matters from the fish and other manures placed on the sand filter of the shallow tank;
a assembly of perforated pipe covered by a layer of gravel serving to return the filtered water back into the fishpond;
a selected species of algae and water plants planted on the soil of the shallow water tank, producing food for the fishes;
a floor having valleys and ridges installed at the bottom of the fishpond, the valleys of which serving to accumulate droppings or waste maters from the fish;
a horizontal screen net framed and stretched about one foot above and across the floor of the fishpond preventing the fish from agitating the muddy waste matters on the floor;
a wide-face bladed windmill erected between the fishpond and the algae pond serving to pump out turbid water and waste matter from the fishpond and transfer it into the algae pond for fertilizer and clearing of the fishpond water;
the windmill further serving to save fuel for the fusion engine during strong winds;
a water wave vertical impact wall attached to one side of the platform facing the water waves;
a water wave energy converter, having a chamber, valves, and power turbine, attached to the upper section of the impact wall, helping to produce energy for the whole platform;
and
an anchor attached to the ocean floor, holding the platform against

13 more elements

A new apparatus for obtaining maximum benefits from hydrogen-deuterium fuel and other fuels and for maximum utilization of the hybrid fusion engine, in accordance with claim-1,

wherein, to make a house/home/building self sufficient in energy, the old house/building is retrofitted with the hybrid fusion powered engine illustrated in claim-1;
wherein, the roof of the house is overlain with a heat reflective metal sheet, one of which is aluminum sheet;
wherein, to create additional heat source, a solar trap box oven is constructed above the roof, comprising:
a lower/inner transparent water proof hot sheet that prevents hot air from escaping out from the solar trap box oven;
a upper/outer transparent water proof cold sheet, exposed to the wind, that prevents the wind from touching the lower/inner sheet and from stealing the heat from the solar box;
the solar trap box further encloses part of the house's side more often exposed to the sunlight,—creating a hot room;
wherein, a gas turbine hybrid fusion engine of claim-1, having a power exhaust turbine driving an electric generator and further driving a turbine compressor,—is installed inside the hot room, the compressor being elevated at the eve of the roof but lower than the power exhaust turbine;
wherein, a high efficiency smokeless trash burner is installed inside the hot room and resting on the ground, and being fed with various kinds of fuel easily available including trash;
wherein, a plurality of heat absorbing radiator pipes/tubes containing the cold compressed air from the compressor are made to pass thru under the heat reflective metal sheet and following the roof to the ridge,—to make the house cool;
wherein, the cold heat absorbing radiator pipes are continued back down to the roof's eves in the form of larger pipes in the form of horizontal multi-coils laid on the roof's reflective sheet;
wherein, the hot air exhaust from the power turbine is contained in a multiple hot tubes/pipes horizontally coiled and placed inside each corresponding heat absorbing cold coils of compressed air pipe,—in a reverse air flow—to preheat the compressed air;
wherein, some of the cold compressed air pipe engulf the hot exhaust tail pipes in multi-coils from the solar trap oven in reverse air flow,—to preheat the compressed air;
wherein, the preheated compressed air then proceeds inside heat absorbing multi-coiled pipes in multi-branches laid at the upper section space of the solar trap oven for final super-heating;
wherein, the downstream sections of the final heating pipes are disposed at the highest space of the solar trap oven, same highest space being of the highest temperature;
wherein, the downstream ends of each final heating pipe are communicated into a hot header pipe communicated to drive the the exhaust power turbine;
wherein, a fusion plasma fusion torch is made to fire fusion flames inside the downstream end of the hot header pipe approaching the power turbine;
wherein, a plurality of perforated air nuzzles are disposed downward inside the upper section of the smokeless trash burner to superheat the in-coming oxygen air blowing downward, thereby burning the trash fuel from the top and distributing superheat oxygen out from the perforations to the fumes flying around the oven and into the exit chimney;
wherein, a deuterium plasma torch is made to fire fusion flames into the exit chimney of the trash burner serving as catalytic converter oven;
wherein, the exit chimney of the trash burner discharges into and inside the solar trap oven to contribute heat therein, and, as it is hereby extremely emphasized, to recapture the heat energy spent in running the catalytic converter;
wherein, some of the hot air exhaust from the power turbine, it being a hot oxygen air, is contributed into trash burner to perfectly burn the trash fuel by passing thru the perforated oxygen distributor nuzzles;
and
wherein, the electric generator is made to produce DC electricity used in running an electrolysis machine thereby producing hydrogen/deuterium fuel used into the trash burner and into the plasma torch catalytic converter for the trash burner.

19 more elements

A new device or apparatus assembled for obtaining maximum benefits from fuel in a scavenger process, in accordance with claim-1, for the production of abundant smelted hardware/materials, abundant distilled water, and abundant hydrogen-deuterium fuel,

wherein, in the process of smelting and manufacturing various kinds of materials/hardware products, the chimney of the smelting furnace is totally communicated to a hot multi-branch/multi-coil radiator pipes/tubes submerged into a steam boiler to drive a steam engine—as second engine that generates DC electricity for the production of hydrogen-deuterium fuel thru electrolysis, thereby the otherwise wasted furnace heat is harnessed/recycled to produce distilled water and abundant hydrogen-deuterium fuel;
wherein, in a first stage heating of cold compressed air from a first engine's compressor, the steam expelled by the steam engine is condensed into distilled water by recapturing its heat content to heat-up a first branch cold compressed air that drives a power exhaust turbine of a gas turbine engine—as first engine that generates DC electricity,—thereby the otherwise wasted steam's heat drives the first engine and helps produce more hydrogen-deuterium fuel;
wherein, a second branch of the cold compressed air from the first engine's compressor is pre-heated by further recapture of the chimney's heat at downstream past the boiler, thereby the otherwise wasted low heat of the downstream chimney also help drive the first engine and further harnessed to produce more hydrogen-deuterium fuel;
wherein, the chimney's heat at its last downstream section is further recaptured by pre-heating cold water before it gets into the boiler, thereby the lower temperature chimney's last drop of heat also help in driving the two engines by helping produce more steam, and further harnessed to produce more distilled water, and further harnessed produce more hydrogen-deuterium fuel;
wherein, solar heat thru a solar trap is availed-of to pre-heat the cold water at day time before it gets into the boiler, thereby solar heat is harnessed and contributes heat energy in driving the two engines, and helps in producing more hydrogen-deuterium fuel by helping the boiler produce more steam without increasing the heat output of the furnace;
wherein, a third branch of the cold compressed air gets into a heat collector radiator placed inside the annealing chamber where the compressed air recaptures and get heated-up by the heat energy being given-up/radiated in annealing process and communicated into the main compressed air power air duct—to help drive the first engine that generates DC electricity, thereby the otherwise wasted annealing heat energy is also harnessed to help produce additional more and more hydrogen-deuterium fuel;
wherein, the low temperature heat energy in the chimney getting out of the annealing chamber is harnessed by a radiator submerged into the upstream section of the boiler to pre-heat the water before it gets into the boiling section, thereby the otherwise wasted low heat from the annealing chamber also helps in the production of more steam, more distilled water and more production of additional hydrogen-deuterium fuel;
wherein, majority of the hydrogen-deuterium fuels produced by the two engines is fired by thermonuclear fusion into the smelting furnace to limit the use of oxygen or stop production of NOX and most importantly to slow down the flow of hot fusion gas inside the chimney, to make the hot fusion flame stay more time inside the furnace to effectively melt down more materials being smelted and to prevent oxidation of the materials being smelted—a major break-through, and to make the fusion hot gas stay more time inside boiler—in order to produce more steam, more distilled water, and more hydrogen-deuterium fuel, and ultimately more smelted hardware produced,—in an endless energy recycle process—a major break-through;
wherein, a lesser part of the hydrogen-deuterium fuels produced by the two engines is fired by thermonuclear electro-plasma fusion into the last downstream section of the compressed air pipe/duct to super-heat-up the compressed air and to provide super power upon the exhaust power turbine of the first engine—serving as a third stage heating of the compressed air,—in the mission to produce more DC electric power for the production of more and more hydrogen-deuterium fuel for the smelting furnace and more and more distilled water;
wherein, as a second stage heating-up of the compressed air, the super-hot air expelled by the first engine into its tailpipe is communicated into a multi-branch/multi-coil tubes/pipes heat emitting radiator, each pipe inserted inside each corresponding heat absorbing radiator pipes containing the already pre-heated compressed air, contained in the mid-section of the compressed-air duct, in reverse air flow opposite the hot air to further heat-up/energize the compressed air,—in the efforts to recapture the tailpipe heat energy and recycle/harness it back to drive the exhaust power turbine again and again,—thereby the otherwise wasted tailpipe heat energy is further harnessed to produce more and more hydrogen-deuterium fuel for the furnace for the production of more and more distilled water;
wherein, the lower temperature heat energy contained in the waste air inside the down stream mid-section of the first engine's tailpipe is made to interact and recaptured in first stage heating by the second branch cold compressed air,—in order to help drive the first engine in a heat recycle process;
wherein, the low temperature last drop of heat energy in the last downstream section of the first engine's tailpipe is harnessed to pre-heat the cold water before its gets down to the boiler;
wherein, the low temperature heat energy contained in the air inside the annealing chimney past the boiler—is recaptured by the cold compressed air in a first stage heating process, then used to pre-heat the cold water before it gets down to the boiler;
and
wherein, some of the pre-heated cold clean compressed is diverted to provide clean heating air into a house or building, and the downstream warm air, after it exit from the building, is used to pre-heat the cold water before it gets down to the boiler,—a heat recycle process,—see FIG. 30 and FIG. 31.

12 more elements

Heat Energy Recapture And Recycle And Its New Applications

Life of this patent

Heat Energy Recapture And Recycle And Its New Applications

Life of this patent

Abstract

Claims59