WO2000048298A1 - Systeme de production d'energie automatique compose principalement d'un chauffage par pertes dielectriques tel qu'un systeme a magnetron - Google Patents

Systeme de production d'energie automatique compose principalement d'un chauffage par pertes dielectriques tel qu'un systeme a magnetron Download PDF

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Publication number
WO2000048298A1
WO2000048298A1 PCT/JP2000/000804 JP0000804W WO0048298A1 WO 2000048298 A1 WO2000048298 A1 WO 2000048298A1 JP 0000804 W JP0000804 W JP 0000804W WO 0048298 A1 WO0048298 A1 WO 0048298A1
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power
steam
water
water supply
magnetron
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PCT/JP2000/000804
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English (en)
Japanese (ja)
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Sheiichi Akiba
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Sheiichi Akiba
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Priority to AU24621/00A priority Critical patent/AU2462100A/en
Publication of WO2000048298A1 publication Critical patent/WO2000048298A1/fr

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    • H—ELECTRICITY
    • H02—GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02K—DYNAMO-ELECTRIC MACHINES
    • H02K53/00—Alleged dynamo-electric perpetua mobilia

Definitions

  • Self-active power generation system mainly based on dielectric heating method such as magnet
  • a steam generator using a dielectric heating method, such as a magnet port, to generate high-pressure steam, rotate the required high-speed turbine generator, etc. with this steam energy, and actively operate the power generation equipment.
  • a condenser, an indirect resistance heating feedwater heater, an indirect resistance heating first feedwater heating tank, an induction heating second feedwater heating tank, and a feedwater circulation pump were created to create a water supply circulation system.
  • a dielectric heating furnace such as a magnetron, that is, a power supply such as a steam generator, a power supply such as operating equipment, etc. is instantaneously provided.
  • a water supply circulation system is created with a feed water heater, a regenerative high-pressure water heater, a regenerative water supply heating tank, and a water supply circulation pump.
  • Electric power, etc., once generated is diverted from a transformer, etc., to a control system.
  • Power supply such as a magnetron, etc., and a power supply such as a steam generator and operating equipment such as a water supply circulating pump.
  • a dielectric heating furnace such as a pressurized water reactor type magnetron is appropriately installed to heat the primary heat conductive material (mainly using light water, etc.), etc., and the pressurizer, steam generator, and primary heat conductive material drive pump
  • a primary heat conduction material circulation system is created, and as an indirect water supply system cycle, high-pressure steam is generated by a steam generator, etc., and the steam energy is used to drive the required high-speed turbine generator, etc.
  • the scope of the disclosure of claim 1 is to utilize a principle of dielectric heating such as a magnetron, generate high-pressure steam as appropriate, send the steam to a high-speed turbine, and rotate a required generator and the like.
  • the water supply circulation system is created and actively constructed by installing water supply heaters, water supply heating tanks, etc., utilizing condensers, water supply system circulation pumps, and the principles of indirect resistance heating and induction heating. Once power is generated, the generated power, etc.
  • a control system is provided, and instantaneously, a dielectric heating furnace such as a magnetron (steam generator, etc.) and operating equipment Switch power supply and supply power, configure in a cyclic manner as self-powered power generation, use surplus power generated from generators, etc., and provide make-up water tanks etc. as appropriate, use steam energy such as waste heat steam, etc.
  • a magnetic Tron such as dielectric heating system, self-active Cosi energy, single-tion power generation system and say it is possible.
  • the scope of the disclosure of claim 2 is that, utilizing the principle of dielectric heating such as a magnet port, a plurality of steam generators and the like are provided as appropriate, high-pressure steam is generated, and the steam is sent to a high-speed turbine.
  • Regeneration water heater, regenerative water heating tank, water supply circulation pump, etc. by utilizing high-pressure steam generated by steam generators, etc.
  • Power is generated actively, and once generated power, etc. are branched from a transformer etc., a control system is provided, and instantaneously, a dielectric heating furnace steam generator such as a magnetron, and operating equipment The power supply is switched and power is supplied, and it is configured in a cyclic manner as self-active power generation. The surplus power generated by the generator etc.
  • a dielectric heating furnace such as a pressurized water reactor type magnet port is appropriately provided, and a primary heat conductive material circulating system is provided by a pressurizer, a steam generator, a primary heat conductive material drive pump, or the like. It was created, and high-pressure steam was generated by a steam generator etc. as an indirect water supply system cycle, and this steam energy was used to rotate and drive the required high-speed turbine generators, etc.
  • the indirect water supply system cycle which is the secondary water supply circulation system, is provided by a condenser, secondary water supply system circulation pump, feed water heater, etc. Once created, it is a basic embodiment, and once generated power etc.
  • FIG. 1 is a schematic diagram of a self-active power generation system mainly based on a dielectric heating method such as a magnetron.
  • Dielectric heating furnace such as magnetron (steam generator), 2. Control system and power supply such as magnetron (provided plurally), 3. Waveguide, 4. Microwave irradiation device, 5. Rotating metal blade , 6. Rotating metal blade controller and power supply, 7. Moisture separator, 8.0 ring, 9. Bolt tightening, 10. Water supply ring such as water supply sparger, 11. Microwave turbulence reflector, 12. Induction heating method Moisture separation heater, 13. Main steam regulating valve (stop valve, etc.), 14. Drain, etc. Bleed port, and bypass control system, 15. Turbine power generation equipment, such as speed control device, 16. Moisture separation heater, ⁇ . Steam extraction valve, 18. Condenser, 19. Cooling water circulation pump, 20.
  • Evaporator heat exchanger
  • Water supply circulation pump 26. Indirect resistance heating type feed water heater, 27. Protective sealed indirect resistance heating element, etc. 28. Water supply Heater control system and power supply, 29. Indirect resistance heating system first feedwater heating tank, 30. Protective sealed indirect resistance heating heating element, etc. 31. 1st feedwater heating tank control system and power supply, 32. Water supply Heating tank separator, 33.
  • Cooling circulating water outlet 40. Induction heating coil, 41. Induction heating heat conductor (structure such as ferromagnetic material) that enables convection, etc., 42.0mm 43. Bolt tightening, 44. Circulation pump for water supply system, 45. Upper limit water level adjustment mechanism in steam generator, 46. Lining of stainless steel, etc., 47. Supply water valve, 48. Supply water for supply water tank, 49. Make-up water regulating valve, 50. Transformer, 51. Power transmission utilization, 52. Various waste heat, etc. are incorporated into the system, etc. May be used effectively.53. Switching power supply control system (external power (separately excited)) or self-active power (self-excited), etc.
  • Dielectric heating furnace such as magnetron (steam generator etc.), 2. Control system and power supply (such as plural) such as magnetron, 3. waveguide, 4. microwave irradiation device, 5. times 7. Rotating metal blades, 6. Rotating metal blade control device and power supply, 7. Microwave diffuser reflector, 8. Moisture separator, 9. Water supply ring such as water supply sparger, 10. Water supply circulation pump, 1 1. Water supply system Circulation pipe, 12. Upper limit water level adjustment valve in dielectric heating furnace such as magnetron, 13. Upper limit water level adjustment mechanism in dielectric heating furnace steam generator such as magnetron, 14. Regenerative high pressure steam extraction port, 15.0 Ring, 16. Bolt tightening, 17. Induction heating type moisture separation heater, 18.
  • Drain and other bleed ports, and bypass control system (Utilized to feed water circulation system condenser), 19. Main steam adjustment Valves (stop valves, etc.), 20. Turbine power generation equipment such as governing control devices, 21. Moisture separation heaters, 22. Steam 23. Condenser, 24. Regenerative low-pressure feedwater heater, 25. Regenerative high-pressure steam inlet, 26. Meandering pipeline, 27. Lining stainless steel, etc., 28. Circulation pump for water supply system, 29. Regeneration High pressure feed water heater, 30. Regenerative high pressure steam inlet, 31. Serpentine pipeline, 32. Lining of stainless steel etc., 33. Water supply system circulation pump, 34. Regenerative feed water heating tank, 35. Regenerative high pressure steam inlet , 36.
  • Switching power supply control system such as external system power (separately excited) or self-active power (self-excited). (It is recommended that the generated power, etc. be branched from a transformer, etc., a control system, etc. be provided, the power supply of a dielectric heating furnace such as a magnetron be switched instantaneously and supplied with power, and utilized as appropriate in a cycle.)
  • FIG. 1 is a schematic diagram illustrating a self-active power generation system of a pressurized water reactor type using a dielectric heating system such as a magnet port.
  • Dielectric heating furnace such as pressurized water reactor type magnetron (provided with multiple jet pumps etc. as appropriate), 2. Control system and power supply such as magnetron (provided with multiple), 3. Waveguide, 4. Microwave irradiation Equipment, 5. Microwave irradiator tip immersion sealing device (sealed with setware, etc.), 6. Air bleeding device (sealed and used with a bolt, etc.), 7.0 ring, 8. Bolt tightening, 9. Strain supported by a dielectric heating furnace such as a magnetron, 10. — circulating water supply ring such as a secondary heat conductive material, 11. Microwave turbulence reflector, 12. Immersion type electric heater, etc. 13. Pressurizer (appropriate use of one set only) , 14. Steam generator, 15.
  • FIG. Excerpt from the Electrical Engineering Handbook, published by the Institute of Electrical Engineers of Japan
  • Main steam outlet nozzle 2. Upper body, 3. Secondary manhole, 4. Trunnion, 5. Water level control nozzle, 6. Water supply ring, 7. Water level control nozzle, 8. Inner body, 9. Heat transfer tubes, 10. Lower body, 11. Secondary handhole, 12. Bottom blowdown nozzle, 13. Stainless steel lining, 14. Primary coolant inlet / outlet nozzle, 15. Channel, 16. Primary manhole, 17. Inconel lining, 18. Tube sheet, 19. Body plate drain nozzle, 20. Water level gauge nozzle, 21. Water level gauge nozzle, 22. Feed water inlet nozzle, 23. Top blow down nozzle, 24. Water level gauge nozzle, 25. Separe One, 26. Dryer.
  • FIG. (Excerpt from IEEJ Handbook of Electrical Engineering)
  • Claim 1 is shown in FIG. 1, claim 2 is shown in FIG. 2, claim 3 is shown in FIG. 5, and the best embodiments are shown in each claim. However, the best mode and the like will be sequentially described below as examples according to the claims.
  • the basic configuration of the self-active power generation system mainly based on the dielectric heating method such as a magnetron according to claim 1 is as shown in FIG. Furnace (steam generator) (1), magnetron and other control systems and power supplies (provided multiple) (2), waveguide (3), microwave irradiation device (4), rotating metal blade (5), rotating metal blade Control device and power supply (6), moisture separator (7), 0 ring (8), bolted
  • Switching power supply control system (separately-excited type) or self-active type (self-excited type) etc. (Once generated power is branched from a transformer etc., a control system etc. is installed, and a dielectric heating furnace such as a magnet port etc. It is advisable to switch the power supply instantaneously and supply power, and use it in cycles as appropriate.)
  • the electrons emitted from the central cathode in the two-electrode vacuum tube jump toward the surrounding anode, and the strong magnetic field working in the vertical direction bends the course and vortices.
  • the cavity acts like a series circuit of a coil and a capacitor, generates an oscillating current, and emits a microwave.
  • Microwaves are transmitted through the waveguide, and a plurality of structures are provided.They are appropriately configured as a microwave irradiation device, which hits a large number of rotating metal blades, etc.
  • the induction heating furnace such as a magnetron generates high-pressure steam.
  • the dielectric heating furnace such as a magnetron has a microwave diffuse reflector, an upper limit water level adjustment mechanism, and a microphone mouth wave.
  • a microwave diffuse reflector such as a magnetron
  • an upper limit water level adjustment mechanism such as a magnetron
  • a microphone mouth wave In addition to providing a moisture separator, etc., it is advisable to insert and fix set products etc. at the waveguide tip (microwave irradiator tip, etc.) appropriately in order to prevent the entry of steam and the like.
  • the steam generated by the steam generator, etc. passes through stainless steel pipes, etc., and is heated by an induction heating type moisture separation heater.
  • High-pressure steam to remove residual moisture and lead to dry steam to the turbine a bypass control system, a stainless steel pipe equipped with a main steam regulating valve, etc., and a speed control device.
  • the power generation equipment composed of a steam turbine generator and the like such as a moisture separator and heater, is operated and guided to a condenser and the like.
  • the steam cooled by the condenser becomes water, which is supplied by the indirect resistance heating type feedwater heater, the indirect resistance heating type first feedwater heating tank, the induction heating type second feedwater heating tank, etc. Pressurized water is supplied to a steam generator, etc., and a water supply circulation system is created.
  • feedwater heating system if multiple feedwater heaters with indirect resistance heating are installed, the installation of feedwater heating tanks, etc. may be omitted, and various waste heat sources (such as waste incinerators) , Thermal power generation, gas turbine power generation, geothermal power generation, steelworks blast furnaces, etc.) may be incorporated into the system, etc. to utilize reheating, etc. Of course.
  • waste heat sources such as waste incinerators
  • the cooling water for condensers and the like may use seawater, rivers, lakes and other waters rationally, and use the principle of a freezing cycle to make it possible to select more suitable location conditions, etc.
  • a cooling water tank equipped with a plurality of heat exchangers, thin tubes (expansion valves), evaporators (heat exchangers), compressors (compressors), etc. is provided. Was configured. Generally, alcohol and the like are used as the refrigerant.
  • the general heat cycle of steam turbines includes pure condensing type, regenerative type, reheat type, etc., and does not deny rational use.Back pressure turbine, bleeding turbine, bleeding back In the case of using a pressure bin or the like as a cogeneration power generation system, it is advisable to provide a makeup water tank, etc. and supply makeup water to the water supply circulation system as appropriate and use it rationally, as shown in the figure.
  • a makeup water tank, etc. and supply makeup water to the water supply circulation system as appropriate and use it rationally, as shown in the figure.
  • components dielectric heating method such as magnetron, indirect resistance heating method, induction heating method, etc.
  • individual or multiple combinations, boiler equipment, etc. may be installed and used.
  • the above is an explanation of the water supply and condensate circulation system.
  • the power once generated (including the case where it is configured as a cross-compound power generation) is branched from the transformer, etc.
  • a power system such as a magnetron and a dielectric heating furnace (steam generator) and a power supply for operating equipment are switched to supply power instantaneously to form a self-active power generation system (self-excited). It is advisable to use the surplus power generated by the generator etc. rationally in addition to the cyclical configuration.
  • the power supply for the magnetron and other dielectric heating furnaces (steam generators) and the power supply for the operating equipment are shown in Fig. 1.
  • the magnetron and other control systems and power supplies (provided in plurality) (2), rotating metal blade control device And power supply (6), induction heating type moisture separation heater (12), feed water heater control system and power supply (28), first feed water heating tank control system and power supply (31), induction heating control device And power supply (37), water supply circulation pump (25), (33), etc., cooling water circulation pump (19), compressor (23), etc., but with the control system, use of single-phase AC, Young or rational use of three-phase alternating current (it is advisable to use three-phase power so as not to cause unbalance as much as possible).
  • a control system should be provided as appropriate, and a reasonable It may be.
  • the embodiment of claim 2 that is, the configuration of a self-powered power generation system of a regenerative type or the like, such as a magnet port, is a dielectric heating furnace, such as a magnetron.
  • control system such as magnetron and power supply
  • Water supply ring such as water supply sparger (9), water supply system circulation pump (10), water supply system circulation pipe (11), magnet port, etc., upper limit water level adjusting valve in dielectric heating furnace (12), magnet port, etc.
  • Water supply nozzle (44), drainage, and regenerative steam outlet (lead to condenser, etc., as water supply circulation system (Use again) (45), cooling water circulation pump (46), cooling water tank (47), stainless steel lining (48), compressor (49), condenser (50), thin tube etc. (51), evaporation (Heat exchanger) (52), makeup water valve (53), makeup water tank and other makeup water (54), Lining made of stainless steel, etc. (55), Make-up water regulating valve (56), Transformer (57), Utilization of power transmission (58), External power (separately-excited), or self-active power (self-excited), etc. Switching power supply control system (Branch the generated power, etc.
  • a regenerative type, etc. a plurality of dielectric heating furnace steam generators such as a magnetron described in the embodiment of claim 1 are appropriately provided, and high-pressure steam is generated, respectively.
  • the steam energy is used as a heat source (energy) for the operation of required high-speed turbines and other power generation equipment, and is guided to a regenerative low-pressure feedwater heater, a regenerative high-pressure feedwater heater, a regenerative feedwater heating tank, etc. to heat the feedwater ( Reheat) and use it rationally as appropriate.
  • the high-pressure steam generated by the steam generator, etc. passes through stainless steel pipes, etc. Moisture is removed by a heat-type moisture separator / heater, etc., and as dry steam, it passes through a stainless steel pipe equipped with a bypass control system, main steam regulating valve, etc., as well as a speed control device, wet Operate power generation equipment including steam turbine generators, such as a separation heater, and guide it to a condenser, etc., and turn it into water, which is heated (reheated) by a regenerative feedwater heater, regenerative feedwater heating tank, etc. Then, the water pressure is increased by the water supply system circulation pump, etc., and the water is supplied to the steam generator, etc. to create the water supply circulation system.
  • the feedwater heater, etc. mainly uses the steam energy generated by the steam generator, etc., depending on whether it is placed before the feedwater circulation pump in the condensate water supply system or after it. Distinguishing between low-pressure feed water heaters and high-pressure feed water heaters, etc., depending on how they are installed, they may be distinguished between horizontal type and standing type, etc. Many of them use U-shaped pipes. The ends of the pipes are expanded and installed, and brass pipes, steel pipes, or stainless steel pipes are used to heat the water supply and improve cycle efficiency. In general, it is guided to a condenser and collected in the water supply system.In some cases, a heat source such as turbine bleed air may be used. The installation of the link may be rationally omitted.
  • cooling water for condensers, etc. seawater, river water, lake water, etc. may be used rationally, and cooling water tanks utilizing the principle of the refrigeration cycle, etc. so that location conditions etc. can be selected. May be provided, and the cooling water circulation system may be configured and utilized as appropriate.
  • a make-up water tank etc. shall be provided as appropriate to make up the supply water circulation system. And water can be used rationally.
  • a forced convection type recirculation system consisting of recirculation pumps, jet pumps, pipes, valves, etc., as shown in Fig. 3, was created (appropriately installed as necessary.
  • the efficiency may be improved by stirring the water supply in the furnace.
  • the jet pump has no moving parts and blows out the driving flow, which is pressurized by a recirculation pump or the like, as a high-speed flow from the nozzle outlet, sucks the water supply, etc., and supplies it to the lower part of the furnace to stir and force Convection is possible.
  • the above devices, etc. should be applied rationally as appropriate in claims 1, claim 2, claim 3, etc.
  • the water supply ring such as a water supply sparger, shown in Fig. 4 distributes and injects the water uniformly into the furnace.
  • a water supply sparger shown in Fig. 4 distributes and injects the water uniformly into the furnace.
  • Claim 1 Claim 2, Claim 3, etc., it can be applied appropriately and reasonably.
  • the above is a description of the water supply and condensate circulation systems.
  • the power generated once (including the case where it is configured as a cross-compound type power generation) is branched off from the transformer, etc.
  • Power supplies such as magnetron and other dielectric heating furnaces (steam generators), etc., and operating equipment (induction heating type moisture separation heaters, water supply circulation pumps, etc.)
  • Power supplies such as cooling water circulating pumps and compressors are switched and supplied separately, and a self-active power generation system (self-excited type) is used in a cyclical manner, and excess power generated by generators is rationalized. It is good to use it effectively.
  • Dielectric heating such as a magnetron, that is, the outline of the structure of an electric heating device such as a microphone mouth-wave irradiation device, etc.
  • Dielectric heating is an electric system, single-phase 100 V, 200 V, three-phase 200 V, etc.
  • a control method of switching outputs that is, providing and combining outputs in several stages, and a timer switch are used.
  • FIG. 5 schematically shows the construction of the self-powered power generation system of the embodiment of claim 3, namely, a pressurized water reactor type of a dielectric heating system such as a magnet port.
  • Heating furnace (provided with multiple jet pumps, etc. as appropriate) (1), control system such as magnetron and power supply (multiple), (2), waveguide (3), microwave irradiation device (4) , Microwave irradiator tip immersion sealing device (seal with set objects, etc.) (5), air bleeding air (seal and use with bolts, etc.) (6), 0 ring (7), bolting (8), magnet Strain supporting dielectric heating furnace such as tron (9), circulating water supply ring such as primary heat conductive material (10), microwave irregular reflection plate (11), immersion type electric heater etc.
  • Fig. 5 two sets of power generation equipment were configured, but the pressurizer, steam generator, primary heat conductive material drive pump, high-speed turbine power generation equipment, condenser, secondary water supply circulation system, etc. , One set may be used.
  • a detailed configuration of a dielectric heating furnace such as a pressurized water reactor type magnet port is provided with a plurality of control systems such as a magnetron and a plurality of power supplies (2) as appropriate.
  • a microphone mouth wave irradiator with a set of things and fixed is used.
  • an air bleeder (6) with a female thread, etc. is installed. After filling the primary heat conductive material, it is sealed and used with a bolt-shaped lid.
  • a circulating water supply ring (10) such as a primary heat conductive material, is provided as appropriate, as shown in Fig.
  • the structure of the steam generator is shown in Figure 6 (published by the Institute of Electrical Engineers of Japan, excerpted from the Handbook of Electrical Engineering). It is used in pressurized water reactor type nuclear power generation, and the primary coolant inlet / outlet nozzle ( 14) When used in the present invention,, etc. are used as replacements for the primary heat conductive material inlet / outlet nozzle, and are used rationally as appropriate, but use a vertical U-tube type, Inconel heat transfer tube Then, the primary heat conductive material enters from the lower inlet nozzle of the steam generator, flows out of the outlet nozzle through the heat transfer tube.
  • Water was supplied to the secondary side of the steam generator from the position just above the top of the heat transfer tube through the water supply ring, and descended along the annular portion around the heat transfer tube while mixing with the descending water separated by the steam separator. Later, the direction is changed and the heat transfer tube is raised, and the steam passes through the upper steam separator, dryer, etc., becomes dry steam, and is sent to the turbine, etc.
  • the structure of the pressurizer is shown in Fig. 7 (extracted from the Electrical Engineering Handbook, published by the Institute of Electrical Engineers of Japan).
  • the pressurizer is a facility for keeping the primary heat conductive material pressure constant during operation.
  • the electric heater is provided with a flap, safety valve, and relief valve at the top, but during operation, the lower half forms a liquid phase and the upper half forms a gas phase.
  • the water is controlled and absorbed by the operation of the electric heater and the spray.
  • a spray method which is a direct cooling method in which water or saturated steam is sprayed into the superheated steam.
  • the boiling point of water is 100 ° C
  • the critical temperature is 374 ° C
  • the critical pressure is 226kg / cni, which is used in the pressurized water reactor type of nuclear power generation.
  • hot water at about 300 ° C and about 157 atm is introduced and used rationally.
  • the immersion-type electric heater of the pressurizer is used at 1,000 kW for the 550 Mw class, 1,000 Kw for the l, 100 Mw class, and 1,800 Kw for the 100 Mw class.
  • Seawater, river water, lake water, etc. may be used rationally for cooling water for condensers, etc., but as shown in Fig. 1, etc.
  • a cooling water tank or the like utilizing the principle of the cycle may be provided, and a cooling water circulation system may be appropriately configured and used.
  • the secondary water supply circulation system, feed water heater, secondary water supply circulation pump, etc. may be installed and used as necessary, if necessary.However, the heat source of the feed water heater uses turbine extraction, etc. After the work, it is general that it is guided to the condenser and collected in the water supply system.It is used as a cogeneration system using back pressure turbine, extraction turbine, extraction back pressure turbine, etc. In such cases, as shown in Fig. 1, etc., it is advisable to install a make-up water tank and a feed water heater using an indirect resistance heating method, etc. as appropriate and use it rationally.
  • the configuration of the power generation equipment, etc. can be a tandem compound type (multi-chamber turbine, which is arranged in a skewer shape on one axis with the cabin), or a cross-compound type (two or more It does not deny the configuration and utilization as an array (parallel type), but a control system etc. may be provided for external system power (separate excitation type) etc. and may be used rationally as appropriate .
  • 1 kwh 860 kcal, 30 t, heat to raise to 300 ° C is 9, 000, 000 kcal, electric power is about 10, 500 kwh.
  • Temporary power for operating the system is indirect resistance heating method. Even if it requires 20,000 kWh or more, there are power generation facilities such as generators with a capacity of 500,000 kw to 1,000,000 kW or more, and sufficient active power generation is possible. The greater the scale of capacity equipment, the more efficient.
  • the crucible capacity is 30 (t)
  • the electric capacity is 5,200 (Kw)
  • the power capacity is 6,000 (KvA)
  • the power source unit is 500 (Kwh / t) and melting capacity of 10.4 (t / h) .
  • the dielectric heating method such as magnetron, it is a household microwave oven, but AC 100 V, power consumption I tried to heat 10 £ water with 1,0 O0W (1 Kw), but it was possible to use it by boiling it sufficiently, and it was possible to use it.
  • the power consumption will be approximately 10,000 Kw.However, it is preferable to heat the system once and use it in a cyclical manner. Although the initial electrical energy is consumed, the operating power consumption etc. and the generator Between the power output capacity facilities may drop, power consumption, etc. can be also sufficiently efficiently used as constituted by 5% to 10% of such power output capacity facilities.
  • the heating element is selected appropriately according to the application, atmosphere, etc., and generally, in a furnace at 1,000 ° C or less, a nichrome or iron chromium heating element (Alloy heating elements), and at higher temperatures, use silicon carbide, kanthal, etc. In furnaces at 1,400 ° C or higher, molybdenum-gaid heating elements are used.
  • the furnace wall is made of refractory brick and heat insulating material, but sometimes it is lined with heat-resistant steel and used.
  • the materials used for the indirect resistance heating furnace (furnace wall) to be implemented should be made of low alloy steel, etc., and be made thicker so that the wall thickness is durable, and used by lining with heat-resistant stainless steel.
  • the power supply of the resistance furnace is almost 200 V for three-phase and 100 V for single-phase.
  • the immersion-type electric heater of the pressurizer used in the pressurized water reactor type nuclear power generation has a capacity of 5,000 MW, l, 000 kw, and 1, l OOMw class, 1, 8001 cw.
  • Hokkaido Electric Power Tomari Nuclear Power Station is a pressurized type, but the steam generator circulates hot water at about 300 ° C and can generate 579,000 kw.
  • the steam is generated by heating at 300 ° C, and active power generation with amplification is sufficiently possible.
  • the critical temperature, critical pressure, etc., and existing power generation facilities such as generators are listed, use the generated power once, set up a control system, and configure and utilize it as a self-active power generation system in a cyclical manner. Things are possible enough.
  • the permanent heating system including the regenerative type and the pressurized water reactor type can be used by the dielectric heating method such as the magnetron. The effect of this is that highly efficient use of surplus power generated by generators and the like becomes possible.
  • It can be used as a cogeneration power generation system, is clean energy, is useful for environmental preservation, etc., and is capable of large-scale power generation with active amplification.
  • the conventional concept of consumption can be translated into amortization based on its useful life.

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Abstract

La présente invention un mouvement perpétuel permettant la réalisation et l'exploitation d'un de production d'énergie propre à grande échelle faisant partie d'une nouvelle génération. Une génératrice à vapeur ou un système similaire à chauffage par pertes diélectriques, tel qu'un système à magnétron, est configuré de manière à générer une vapeur haute pression entraînant un turbogénérateur à vitesse de rotation élevée de manière à faire fonctionner activement une centrale électrique, etc. Un système de circulation d'eau est composé d'un condensateur, d'un dispositif de chauffage de l'eau d'alimentation, et une pompe de circulation pour l'alimentation en eau. La puissance électrique produite est branchée sur un transformateur. Un système de commande permet de sélectionner une source d'énergie pour l'alimentation électrique, p. ex. la génératrice à vapeur et une installation d'exploitation en alternance. Cette configuration cyclique permet d'exploiter l'énergie résiduelle de la génératrice à vapeur ou d'un système similaire. Ce système comprend un réservoir d'alimentation en eau permettant d'exploiter l'énergie-vapeur afin d'entraîner une turbine à contre-pression, etc. Ce système automatique de production d'énergie est configuré de manière à résoudre les problèmes. Ce système de production d'énergie à chauffage par pertes diélectriques comprenant p. ex. un magnétron est illustré dans la figure. La configuration et l'exploitation d'un système de production d'énergie à récupération d'énergie, à réacteur à fluide sous pression comprenant un système d'alimentation d'eau à cycle indirect sont décrits.
PCT/JP2000/000804 1999-02-15 2000-02-14 Systeme de production d'energie automatique compose principalement d'un chauffage par pertes dielectriques tel qu'un systeme a magnetron WO2000048298A1 (fr)

Priority Applications (1)

Application Number Priority Date Filing Date Title
AU24621/00A AU2462100A (en) 1999-02-15 2000-02-14 Self-active power generating system composed mainly of dielectric heating type such as by magnetron

Applications Claiming Priority (2)

Application Number Priority Date Filing Date Title
JP11/78263 1999-02-15
JP7826399 1999-02-15

Publications (1)

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WO2000048298A1 true WO2000048298A1 (fr) 2000-08-17

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO2002077448A1 (fr) * 2001-03-27 2002-10-03 Seiichi Akiba Systeme de generation d'energie auto-entretenu par un systeme de chauffage par induction

Citations (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS61171882A (ja) * 1985-01-26 1986-08-02 Yoshihiro Tajiri ガス圧省エネ発電
JPH0678521A (ja) * 1992-06-22 1994-03-18 Seiichi Akiba 交流エネルギー増幅装置

Patent Citations (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS61171882A (ja) * 1985-01-26 1986-08-02 Yoshihiro Tajiri ガス圧省エネ発電
JPH0678521A (ja) * 1992-06-22 1994-03-18 Seiichi Akiba 交流エネルギー増幅装置

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO2002077448A1 (fr) * 2001-03-27 2002-10-03 Seiichi Akiba Systeme de generation d'energie auto-entretenu par un systeme de chauffage par induction

Also Published As

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AU2462100A (en) 2000-08-29

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