CN111425833A - Water pressure tilt angle adjusting type steam generation system for obtaining solar energy by heat pipe - Google Patents

Water pressure tilt angle adjusting type steam generation system for obtaining solar energy by heat pipe Download PDF

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Publication number
CN111425833A
CN111425833A CN202010288292.9A CN202010288292A CN111425833A CN 111425833 A CN111425833 A CN 111425833A CN 202010288292 A CN202010288292 A CN 202010288292A CN 111425833 A CN111425833 A CN 111425833A
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China
Prior art keywords
heat
pipe
heat exchanger
rotating shaft
water
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Withdrawn
Application number
CN202010288292.9A
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Chinese (zh)
Inventor
姜方军
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Zhejiang BothWell Electric Co Ltd
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Zhejiang BothWell Electric Co Ltd
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Application filed by Zhejiang BothWell Electric Co Ltd filed Critical Zhejiang BothWell Electric Co Ltd
Priority to CN202010288292.9A priority Critical patent/CN111425833A/en
Publication of CN111425833A publication Critical patent/CN111425833A/en
Withdrawn legal-status Critical Current

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    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F22—STEAM GENERATION
    • F22B—METHODS OF STEAM GENERATION; STEAM BOILERS
    • F22B1/00—Methods of steam generation characterised by form of heating method
    • F22B1/02—Methods of steam generation characterised by form of heating method by exploitation of the heat content of hot heat carriers
    • F22B1/16—Methods of steam generation characterised by form of heating method by exploitation of the heat content of hot heat carriers the heat carrier being hot liquid or hot vapour, e.g. waste liquid, waste vapour
    • F22B1/165—Methods of steam generation characterised by form of heating method by exploitation of the heat content of hot heat carriers the heat carrier being hot liquid or hot vapour, e.g. waste liquid, waste vapour using heat pipes
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F22—STEAM GENERATION
    • F22B—METHODS OF STEAM GENERATION; STEAM BOILERS
    • F22B27/00—Instantaneous or flash steam boilers
    • F22B27/16—Instantaneous or flash steam boilers involving spray nozzles for sprinkling or injecting water particles on to or into hot heat-exchange elements, e.g. into tubes
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F22—STEAM GENERATION
    • F22B—METHODS OF STEAM GENERATION; STEAM BOILERS
    • F22B31/00—Modifications of boiler construction, or of tube systems, dependent on installation of combustion apparatus; Arrangements of dispositions of combustion apparatus
    • F22B31/08—Installation of heat-exchange apparatus or of means in boilers for heating air supplied for combustion
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24S—SOLAR HEAT COLLECTORS; SOLAR HEAT SYSTEMS
    • F24S10/00—Solar heat collectors using working fluids
    • F24S10/90—Solar heat collectors using working fluids using internal thermosiphonic circulation
    • F24S10/95—Solar heat collectors using working fluids using internal thermosiphonic circulation having evaporator sections and condenser sections, e.g. heat pipes
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24S—SOLAR HEAT COLLECTORS; SOLAR HEAT SYSTEMS
    • F24S23/00—Arrangements for concentrating solar-rays for solar heat collectors
    • F24S23/70—Arrangements for concentrating solar-rays for solar heat collectors with reflectors
    • F24S23/74—Arrangements for concentrating solar-rays for solar heat collectors with reflectors with trough-shaped or cylindro-parabolic reflective surfaces
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24S—SOLAR HEAT COLLECTORS; SOLAR HEAT SYSTEMS
    • F24S40/00—Safety or protection arrangements of solar heat collectors; Preventing malfunction of solar heat collectors
    • F24S40/20—Cleaning; Removing snow
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F28—HEAT EXCHANGE IN GENERAL
    • F28F—DETAILS OF HEAT-EXCHANGE AND HEAT-TRANSFER APPARATUS, OF GENERAL APPLICATION
    • F28F13/00—Arrangements for modifying heat-transfer, e.g. increasing, decreasing
    • F28F13/06—Arrangements for modifying heat-transfer, e.g. increasing, decreasing by affecting the pattern of flow of the heat-exchange media
    • F28F13/12—Arrangements for modifying heat-transfer, e.g. increasing, decreasing by affecting the pattern of flow of the heat-exchange media by creating turbulence, e.g. by stirring, by increasing the force of circulation
    • F28F13/125—Arrangements for modifying heat-transfer, e.g. increasing, decreasing by affecting the pattern of flow of the heat-exchange media by creating turbulence, e.g. by stirring, by increasing the force of circulation by stirring
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F28—HEAT EXCHANGE IN GENERAL
    • F28G—CLEANING OF INTERNAL OR EXTERNAL SURFACES OF HEAT-EXCHANGE OR HEAT-TRANSFER CONDUITS, e.g. WATER TUBES OR BOILERS
    • F28G1/00—Non-rotary, e.g. reciprocated, appliances
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F28—HEAT EXCHANGE IN GENERAL
    • F28G—CLEANING OF INTERNAL OR EXTERNAL SURFACES OF HEAT-EXCHANGE OR HEAT-TRANSFER CONDUITS, e.g. WATER TUBES OR BOILERS
    • F28G15/00—Details
    • F28G15/04—Feeding and driving arrangements, e.g. power operation
    • Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E10/00—Energy generation through renewable energy sources
    • Y02E10/40—Solar thermal energy, e.g. solar towers
    • Y02E10/44—Heat exchange systems

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  • Engineering & Computer Science (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Physics & Mathematics (AREA)
  • Thermal Sciences (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Life Sciences & Earth Sciences (AREA)
  • Sustainable Development (AREA)
  • Sustainable Energy (AREA)
  • Heat-Pump Type And Storage Water Heaters (AREA)

Abstract

The invention discloses a water pressure tilt-angle-adjusting type steam generation system for acquiring solar energy by heat pipes, which comprises a steam generator and a solar heat pipe heating device, wherein the solar heat pipe heating device comprises a heat storage tank, a reflecting plate driving mechanism and a plurality of reflecting plates, the heat storage tank is provided with the heat pipes, and the reflecting plates are correspondingly positioned below the heat pipes of the heat storage tank part one by one; steam generator includes first heat exchanger and a plurality of stirring rake, and the stirring rake is equipped with the push pedal, and the inclination of push pedal increases along with hydraulic rising. The invention has the advantages of high heat exchange speed, capability of increasing the water pushing force along with the increase of the water level and capability of obtaining solar energy by utilizing the heat pipe, and solves the problem of low heat exchange speed of the conventional steam generator heated by hot fluid.

Description

Water pressure tilt angle adjusting type steam generation system for obtaining solar energy by heat pipe
Technical Field
The invention relates to the technical field of steam production, in particular to a water pressure tilt angle adjusting type steam generating system for acquiring solar energy by a heat pipe.
Background
In the prior art, the vertical arrangement of the thermal fluid steam generator is basically to form steam by heating water in a water storage tank by heat generated by an electric heater or fuel combustion to evaporate the water. In order to realize the full utilization of solar energy, the solar energy is used for heating air, then the hot air is input into a heat exchanger in a water storage tank through a pipeline, when the hot air passes through the heat exchanger, the heat is conducted to water in the water storage tank so that the water is evaporated to form steam, the air releasing the heat flows back to a solar heater to be heated by the solar energy, and the circulation is carried out. Because the hot fluid is heated in a flowing manner, heat still flows away if the heat is not exchanged in time (traditional electric heating and fuel oil heating are that a heat source is always maintained in a water storage rod tank (namely static heating), heat exchange efficiency is high and low, the heat is finally released into water, the heat exchange efficiency is affected only by a long heating time end and cannot cause excessive increase of heat loss), the heat flowing away along with the hot fluid is equivalent to heat loss, and the existing steam generator is heated in a static state, so that water is kept still in the heating process (because the static heating does not need water to move), and the heat exchange speed between the heat exchanger and the water is slow; the position of the heat exchanger is fixed, when the water levels are different, the difference of the utilization rate of heat is large, especially when the distance between the heat exchanger and the liquid level is large, the ratio of the heat dissipated by the heat exchanger along the direction far away from the liquid level to the heat transferred by the heat exchanger towards the liquid level direction and the heat evaporated by initial water is large, the larger the ratio is, the lower the heat utilization rate is, all the heat exchangers are installed to be suitable for being close to the liquid level and far away from the bottom of the container, but the installation mode can cause the water exchange to be quickly evaporated to the liquid level and descend to cause the heat exchangers to be exposed (namely, the evaporation time is short), therefore, the existing heat exchangers are all installed at the bottom of the container to sacrifice the heat utilization rate and achieve the effect of delaying the evaporation time; the existing heat exchangers exchange heat in a submerged mode, and cannot generate water vapor quickly; solar heating does not achieve the purpose of obtaining solar energy by utilizing a heat pipe.
Disclosure of Invention
The invention aims to provide a water pressure tilt-angle-adjusting type steam generating system with a heat pipe, which has high heat exchange speed and can increase the water pushing force along with the increase of water level to obtain solar energy, and solves the problems that the existing steam generator heated by solar thermal fluid has low heat exchange speed and cannot obtain solar energy by the heat pipe.
The second purpose of the invention is to provide a water pressure tilt angle adjusting type steam generating system which can generate steam with high speed and can obtain solar energy by a heat pipe on the basis of the first purpose, and solve the problem that the speed of generating steam is low in the prior steam generator through submerged heating.
The third purpose of the invention is to provide a water pressure tilt angle regulation type steam generating system which can enable the distance between a heat exchanger and the liquid level to be kept constant in the evaporation process and can obtain solar energy through a heat pipe, and the problem that the evaporation time can be prolonged only by sacrificing the heat utilization rate of the existing steam generator is solved.
The technical problem is solved by the following technical scheme: a water pressure inclination-adjusting type steam generation system with solar energy obtained by heat pipes comprises a water storage tank, wherein the water storage tank is provided with a steam outlet, and the water pressure inclination-adjusting type steam generation system is characterized by further comprising a solar heat pipe heating device, the solar heat pipe heating device comprises a heat storage box, a reflecting plate driving mechanism and a plurality of reflecting plates, the heat storage box is provided with a plurality of heat storage box part heat pipes which are arranged in parallel, the heat release ends of the heat storage box part heat pipes are located inside the heat storage box, the heat absorption ends of the heat storage box part heat pipes are located outside the heat storage box, the reflecting plates are located below the heat storage box part heat pipes in a one-to-one correspondence manner, and the reflecting plate driving mechanism is used for driving the reflecting plates to rotate; the water storage tank is internally provided with a first heat exchanger submerged in water in the water storage tank and a stirrer for stirring the water in the water storage tank, the water storage tank is provided with a heat release medium input pipe and a heat release medium output pipe, the inlet end of the first heat exchanger is connected with the heat release medium input pipe, the outlet end of the first heat exchanger is connected with the heat release medium output pipe, the stirrer comprises a vertical rotating shaft, a motor for driving the vertical rotating shaft to rotate and a plurality of stirring paddles arranged on the vertical rotating shaft, the stirring paddles are positioned below the first heat exchanger and comprise a push plate, a spring, a horizontal cylinder body with one end connected with the vertical rotating shaft, a horizontal sliding pipe with one end connected with the other end of the horizontal cylinder body, a sliding pipe part piston connected with the horizontal sliding pipe part piston in a sealing and sliding way and a supporting rod which is connected with the sliding pipe part piston and extends out of the horizontal sliding pipe through the other, the spring is used for driving the supporting rod to contract towards the inside of the horizontal sliding pipe, a cylinder part piston is connected in the horizontal cylinder body in a sealing sliding mode, a hydraulic cavity located on one side, close to the piston of the sliding pipe part, of the cylinder part piston is isolated in the horizontal cylinder body, liquid is filled in the hydraulic cavity, the hydraulic cavity is communicated with the horizontal sliding pipe, a water inlet hole is formed in the space, located on one side, far away from the hydraulic cavity, of the cylinder part piston of the horizontal cylinder body, the horizontal sliding pipe is provided with a connecting seat, the upper end of the push plate is hinged with the connecting seat through a shaft pin, the lower end of the push plate is placed on the part, located outside the horizontal sliding pipe, of the supporting rod, an included angle between the shaft pin and the horizontal sliding pipe is smaller than 90 degrees, and the distance between the part, in contact with the push plate, of the supporting rod and the vertical plane of the axis of the shaft pin, the area of the cylinder part piston is larger than that of the sliding pipe part piston; the heat storage box is connected with the heat release medium input pipe through a fluid output pipeline and connected with the heat release medium output pipe through a fluid input pipeline, and the fluid output pipeline or the fluid input pipeline is provided with a circulating pump. The vertical rotating shaft is driven by the motor to rotate in the process of heating water by the heat exchanger, the stirring paddle is driven by the vertical rotating shaft to rotate, so that water is stirred, and the water in contact with the heat exchanger is rapidly changed as a result of stirring the water, so that the heat exchange effect is improved. This technical scheme makes water push up water, and the temperature of lower part is low from the heat exchanger below during the stirring for the hydroenergy of contact with the heat exchanger can keep big difference in temperature between with the heat exchanger, and heat transfer speed can obtain improving. In the technical scheme, in a designed upper water level variation range, the deeper the water level, the farther the distance between a piston of a cylinder body part and the liquid level and the higher the water pressure applied to the piston are, so that the larger the force of the piston of an outer pushing sliding pipe part is, the force overcomes the elastic force of a spring to drive a supporting rod to extend out until balance is achieved, the supporting rod extends out to drive a push plate to rotate by taking a shaft pin as a shaft so as to increase the inclination angle, and the force of pushing water up when the push plate rotates is increased when the inclination angle is increased; therefore, according to the technical scheme, the deeper the water level is, the larger the force for pushing up the water to make the water rise is. The force pushing up water in the rotation process of the existing stirring paddle is kept unchanged, so that the water rising speed is slow when the water is deep, the slow water rising speed means that the water contacted with the heat exchanger is slow in conversion, and the slow conversion speed means that the heat exchange speed is slow, so that the influence of the water depth on the heat exchange is large when the existing stirring paddle is used for stirring of a steam generator, and the inclination angle of the push plate is increased when the water depth of the stirrer is increased, so that the force pushing up water is increased when the water depth is increased, and the influence of the water depth increase on the heat exchange speed can be reduced. In the designed water level range, when the water level is reduced, the force of the piston of the outer push sliding pipe part is reduced, the supporting rod is contracted under the action of the spring to drive the liquid in the horizontal sliding pipe to enter the hydraulic cavity, and the piston of the cylinder part is driven to move towards the vertical rotating shaft to reach the balanced state. The action point of the thrust generated by pushing the push plate by water in the rotating process is always positioned below the shaft pin. The fluid is circulated through the heat storage tank, and after the sun irradiates the heat absorption end of the heat pipe of the heat storage tank part, the heat is absorbed by the heat absorption end of the heat pipe of the heat storage tank part and is dissipated from the heat dissipation end of the heat pipe of the heat storage tank part, so that the fluid in the heat storage tank is heated, and then the hot fluid in the heat storage tank is conveyed to the heat exchanger and flows back. The part of the sun which is irradiated away from the side of the heat absorption end of the heat pipe of the heat storage box part irradiates the reflector and is reflected back to the heat absorption end of the heat pipe of the heat storage box part by the reflector for utilization, thereby improving the utilization rate of solar energy. When the reflector driving mechanism is used, the rotating angular speed of the reflector is equal to the rotating angular speed of the sun with the reflector as the center, so that the reflector always keeps facing the sun, and poor heating effect caused by backlight is prevented.
The invention also comprises a second heat exchanger exposed on the liquid level of water in the water storage tank, wherein the second heat exchanger and the first heat exchanger are connected in series between the water storage heat release medium input pipe and the heat release medium output pipe, a water inlet cavity is arranged in the top wall of the water storage tank, the water inlet cavity is provided with a water spray hole spraying towards the second heat exchanger, the inlet end of the second heat exchanger is connected with the heat release medium input pipe, the outlet end of the second heat exchanger is connected with the inlet end of the first heat exchanger, and the outlet end of the first heat exchanger is connected with the heat release medium output pipe. In use, water is added into the water inlet cavity and then is discharged from the water spray holes to the second heat exchanger to be evaporated to form steam. The second heat exchanger is heated by the action of a hot fluid flowing through the second heat exchanger. The direct spray type heating can generate steam immediately, and the steam generating speed is high. The second object of the invention is achieved.
Preferably, the first heat exchanger is suspended in the water storage tank through a plurality of heat exchanger part floating balls, the inlet end of the first heat exchanger part is connected with the outlet end of the second heat exchanger through a flexible liquid inlet pipe, and the outlet end of the first heat exchanger part is connected with the heat release medium output pipe through a flexible liquid outlet pipe. During the use, pack into water in the water storage tank and can hang in water through heat exchanger portion floater to the heat exchanger, except that the second heat exchanger is sprayed and is produced steam, first heat exchanger heats liquid production steam to the water that is not evaporated by the second heat exchanger and stores in the water storage tank. The flexibility in the flexible liquid inlet pipe and the flexible liquid outlet pipe in the invention means that: can change along with the lifting of the first heat exchanger, and can not interfere with the lifting of the first heat exchanger. This technical scheme is through hanging in water for passing through heat exchanger portion floater with exchanging the second heat exchanger design, and all first heat exchangers are fixed, can not change because of the change of liquid level apart from the distance of liquid level to can design the heat exchanger for the distance apart from the liquid level in the within range of setting for, thereby realize the rate utilization ratio that improves. The third object of the invention is achieved.
Preferably, the heat exchanger further comprises a third heat exchanger located below the first heat exchanger and a fourth heat exchanger located in the water inlet cavity, the second heat exchanger, the first heat exchanger, the third heat exchanger and the fourth heat exchanger are sequentially connected together and are connected in series between the water storage heat release medium input pipe and the heat release medium output pipe, the third heat exchanger is fixedly connected with the water storage tank, the outlet end of the first heat exchanger is connected with the inlet end of the third heat exchanger through the flexible liquid outlet pipe, the outlet end of the third heat exchanger is connected with the inlet end of the fourth heat exchanger, and the outlet end of the fourth heat exchanger is connected with the heat release medium output pipe in a butt joint mode. The third heat exchanger is designed in the technical scheme, so that heat which is not completely utilized after the first heat exchanger exchanges heat can be further exchanged into water; the third heat exchanger is positioned below the first heat exchanger, which is equivalent to the effect of preserving heat of the first heat exchanger in the direction away from the liquid level. Further improving the heat utilization rate. The fourth heat exchanger is further designed in the water inlet cavity, the quantity of heat displacement of hot fluid flowing through the heat exchanger can be further increased, the temperature difference of the water drum second heat exchanger sprayed into the second heat exchanger can be reduced, and the heat utilization rate and the steam forming effect can be further increased.
Preferably, the stirring paddle is located above the third heat exchanger.
Preferably, the heat exchanger floating ball is connected with the first heat exchanger through a flexible rope. When boiling is generated in the evaporation process, the first heat exchanger can smoothly shake, and the first heat exchanger can smoothly shake to improve the heat exchange effect
Preferably, one end of the flexible liquid inlet pipe is connected with the outlet end of the second heat exchanger, the other end of the flexible liquid inlet pipe is connected with the heat exchanger floating ball, the heat exchanger floating ball connected with the flexible liquid inlet pipe is of a hollow structure, the heat exchanger floating ball connected with the flexible liquid inlet pipe is used for suspending the first heat exchanger through a suspension member of the hollow structure, and the flexible liquid inlet pipe, the heat exchanger floating ball connected with the flexible liquid inlet pipe and the suspension member are connected in series to form a liquid conveying pipeline for conveying fluid into the first heat exchanger through the inlet end of the first heat exchanger. The structure is compact and good.
Preferably, a cavity is arranged in the vertical stirring shaft, a communication hole is formed in the cavity and located below the horizontal cylinder body, and the water inlet hole penetrates through the cavity.
Preferably, the shaft pin is parallel to the horizontal slide tube. The smoothness is better when the supporting rod drives the push plate to rotate.
Preferably, the motor is positioned at the top of the water storage tank, and the upper end of the vertical rotating shaft is connected with the motor and suspended in the water storage tank. The sealing is convenient.
Preferably, the inner surface of the top wall of the water storage tank is a slope, and the steam outlet is butted with the highest point of the inner surface of the top wall of the water storage tank. Can occupy the headspace of water storage tank and move the condition on the limit with steam output port at the agitator, improve the patency when steam flows out.
Preferably, the heat exchanger portion floating ball is of a strip structure extending in the vertical direction. The area of the liquid level occupied by the floating ball of the heat exchanger part can be reduced. The interference to the evaporation efficiency is small when the occupied liquid surface area is small.
Preferably, when the supporting rod extends out of the horizontal sliding pipe to the limit position, the inclination angle of the supporting plate is 45 degrees, and when the supporting rod is inserted into the horizontal sliding pipe to the limit position, the supporting plate is in a vertical state.
Preferably, the spring is located in the horizontal sliding tube, and the spring is located on one side of the sliding tube piston away from the holding rod. Compact structure, the overall arrangement is convenient, connects reliably.
Preferably, the shaft pin and the holding rod are both located behind the rotation direction of the pallet when the pallet is driven to rotate by the vertical rotation shaft. Preventing the components located on the push plate from interfering with the action of the push plate pushing water up.
Preferably, the heat absorbing end of the heat pipe of the heating box part is of a linear structure, and the extending direction of the rotation axis of the reflector is the same as the extending direction of the heat absorbing end of the heat pipe of the heat storage box part. The structure is compact.
Preferably, a generatrix of the reflecting surface of the reflector is an arc line, and a center line of a circle where the arc is located is a rotation axis of the reflector. The gap between the reflecting plate and the heat absorbing end of the heat pipe of the heat storage box part can be kept constant along the circumferential direction of the heat absorbing end of the heat pipe of the heat storage box part, and the cleaning is convenient.
Preferably, a generatrix of the backlight surface of the reflector is an arc line, and the generatrix of the reflector surface of the reflector and the generatrix of the backlight surface of the reflector are coaxial. The structure is compact.
Preferably, be equipped with a plurality of cylindrical archs on the heat storage tank, heat storage tank portion heat pipe one-to-one ground cylindrical bellied terminal surface passes cylindrical arch and inserts in the heat storage tank, the reflector panel is equipped with the go-between, the reflector panel with cylindrical protruding one-to-one links together, the go-between cover is established and can be connected with rotating cylindrical protruding is last. The connecting part of the reflector and the heat storage box can be used as a rotating shaft when the reflector rotates, and the structure is compact and good.
Preferably, the reflector driving mechanism comprises a connecting ring portion outer gear ring coaxially arranged on the connecting ring, a rack meshed with the connecting ring portion outer gear ring, and a rack translation mechanism driving the rack to do reciprocating linear motion. When the reflector is used, the reciprocating translation of the rack drives the forward and reverse rotation of the gear ring outside the connecting ring part, so that the reflector rotates to face the sun all the time, and the reflector resets after the sun falls off a mountain.
Preferably, the outer gear rings of the connecting ring parts on all the reflectors are meshed on the same rack. The structure is compact and the synchronism is good. The control is convenient.
Preferably, the rack translation mechanism includes a rack driving motor that rotates from a driving gear and a driving gear engaged with the rack.
Preferably, the rack translation mechanism comprises a telescopic cylinder, a cylinder body of the telescopic cylinder is connected with the heat storage tank, and a movable rod of the telescopic cylinder is connected with the rack.
The solar heat pipe heating device further comprises a dust removal mechanism for removing dust from the heat absorption end of the heat pipe of the heat storage box part and the light reflection surface of the light reflection plate, the heat absorption end of the heat pipe of the heat storage box part is of a linear structure, the dust removal mechanism comprises a plurality of base rings, a base ring translation mechanism and a base ring lifting cylinder, the base rings can be sleeved on the heat absorption end of the heat pipe of the heat storage box part in a one-to-one correspondence manner, the base rings are driven to do reciprocating translation motion along the extension direction of the heat absorption end of the heat pipe of the heat storage box part, the base rings are driven to lift, adjacent base rings are connected together through connecting strips, an inner cloth coating layer is arranged on the inner; when the base ring lifting cylinder jacks up the translation mechanism, the inner wiping cloth layer is abutted with the lower side surface of the heat absorption end of the heat pipe of the heat storage box part and is spaced from the upper side surface of the heat absorption end of the heat pipe of the heat storage box part, and the outer wiping cloth layer is spaced from the light reflecting surface of the light reflecting plate; when the translation mechanism is pulled down by the lifting cylinder, the inner wiping cloth layer is disconnected with the lower side face of the heat absorption end of the heat storage box part heat pipe and is connected with the upper side face of the heat absorption end of the heat storage box part heat pipe in a butt mode, and the outer wiping cloth layer is connected with the light reflecting face of the light reflecting plate in a butt mode. When cleaning, the base ring is driven to reciprocate, the base ring removes dust on the surface of the heat absorption end of the heat pipe of the heat storage box part through the inner wiping cloth layer, and removes dust on the light reflection surface of the light reflection plate through the outer wiping cloth layer. In the dust removal process, the parts to be cleaned of the heat absorption ends of the light reflecting plate and the heat storage box part heat pipe are only cleaned in one moving direction of the base ring and are disconnected with the cleaning cloth layer in the other moving direction of the base ring, so that the cleaning effect can be improved. The heat pipe and the reflector plate are cleaned.
Preferably, the inner and outer wiping cloth layers are both elastic structures. Because the base ring is concentric with the heat absorption end of the heat pipe of the heat storage box part, the gap between the base ring and the heat absorption end of the heat pipe of the heat storage box part is changed along the circumferential direction of the base ring, and the technical scheme can ensure that the wiping cloth layer can be reliably abutted with the heat absorption end of the heat pipe of the heat storage box part to be carried out and cleaned. Preferably, the inner and outer wiping cloth layers are made of sponge.
The invention also comprises a base ring storage space which is positioned at one end of the reflector plate, which is far away from the heat storage box, and is used for storing the base ring after the base ring is separated from the heat absorption end of the heat pipe of the heat storage box part, and the reflector plate is positioned outside the base ring storage space. The base ring can not shield the heat absorption end of the heat pipe of the heat storage box part when the base ring does not remove dust to the heat absorption end of the heat pipe of the heat storage box part, so that the lower heat absorption effect of the heat absorption end of the heat pipe of the heat storage box part is avoided being interfered. During this technical scheme, outer rag layer and reflector panel contact, interior rag layer and the upside surface contact of the heat absorption end of heat-retaining box portion heat pipe when base ring moves towards base ring storage space for the dust falls to base ring storage space and the part is the one end of detaining at the reflector panel. The dust is detained when reflector panel one end, then receives when the vibration wind blows can disperse again and open the reflector panel to be unfavorable for maintaining the storage dirt effect of reflector panel.
Preferably, one side of the base ring facing the heat storage box is provided with a dust collecting groove for collecting dust scraped off by the inner wiping cloth layer from the upper part of the heat absorbing end of the heat pipe of the heat storage box part. The dust that wipes down when can make the base ring remove towards heat storage box place direction and the downside surface of the heat absorption end of the clean heat storage box portion heat pipe of inner cleaning cloth layer falls to and connects the dirt inslot, avoids dropping on the reflector panel and influences the storage effect of reflector panel and the dirt on outer mopping layer with higher speed.
Preferably, the base ring is further provided with a plug sealing spring, a dust exhaust hole is formed in the lowest point of the bottom wall of the dust receiving groove, a plug which is opened upwards is arranged in the dust exhaust hole, and the plug sealing spring is used for driving the plug to seal the dust exhaust hole. The dust in the dust collecting groove is convenient to discharge.
Preferably, the end face of the base ring is provided with a vertical guide sliding groove extending in the vertical direction, and the plug is connected in the vertical guide sliding groove in a sliding manner. When the dust exhaust hole needs to be closed after the plug is opened, the plug can reliably and automatically close the dust exhaust hole.
Preferably, the plug sealing spring is a pressure spring and is located in the vertical guide sliding groove. The layout is compact, and the dust generated during the working of the plug sealing spring can be reduced.
Preferably, the part of the upper end surface of the plug, which is positioned outside the sliding groove, is an inclined surface which inclines towards one end far away from the base ring. The effect of dust discharge can be avoided being influenced by the blocking of the plug when the dust is discharged.
Preferably, the base ring translation mechanism comprises two driving units, all base rings are located between the two driving units, each driving unit comprises a base, a connecting block, a guide rod connected to the base, a lead screw connected to the base in a rotating mode and a lead screw driving motor driving the lead screw to rotate, the guide rod penetrates through the connecting block, the lead screw is in threaded connection with the connecting block, the connecting block is connected with the base rings together, the lead screw is parallel to the guide rod, and the extending direction of the lead screw is the same as that of the heat absorbing end of the heat pipe of the heat storage box part. The stability of the driving base ring in translation is good.
Preferably, the two drive units share the screw drive motor. It is possible to have both drive units reliably drive the base ring in synchronism with each other.
Preferably, the base includes the chassis and connects two collateral branch bracers at the chassis both ends, the direction of distribution of two collateral branch bracers is with the extending direction of guide arm is the same, the both ends of guide arm are connected on two collateral branch bracers, the both ends of lead screw are rotated and are connected on two collateral branch bracers, the connecting block is located between two collateral branch bracers.
The solar heat pipe heating device further comprises base ring cleaning mechanisms which are used for cleaning the base rings in a one-to-one correspondence mode, the inner peripheral surfaces and the outer peripheral surfaces of the base rings are concentric, each base ring cleaning mechanism comprises an outer rotating shaft of a cleaning mechanism part which can penetrate into each base ring, an outer rotating shaft rotating mechanism structure which drives the outer rotating shaft of the cleaning mechanism part to rotate, a plurality of inner extrusion rods which are connected with the outer rotating shaft of the cleaning mechanism part and extrude the inner cleaning cloth layers, and a plurality of outer extrusion rods which are connected with the outer rotating shaft of the cleaning mechanism part and extrude the outer cleaning cloth layers, and the inner extrusion rods and the outer extrusion rods are distributed along the circumferential direction. The cleaning cloth layer needs to be extruded and moved to be sleeved on the outer rotating shaft of the cleaning mechanism part, the outer rotating shaft of the cleaning mechanism part rotates to enable the inner extrusion rod to move along the circumferential direction of the base ring to perform transposition extrusion on the inner cleaning cloth layer so as to beat out dust on the inner cleaning cloth layer, and the outer cleaning cloth layer performs transposition extrusion on the outer cleaning cloth layer so as to beat out dust on the outer cleaning cloth layer for the extrusion rod to move along the circumferential direction of the base ring. The cleaning of the rag layer of the base ring is realized. The technical proposal uses the rag layer as an elastic structure so that the cleaning effect is better.
Preferably, when the base ring is sleeved on the outer rotating shaft of the cleaning mechanism part to a set position, both ends of the inner extrusion rod exceed the inner wiping cloth layer along the axial direction of the base ring, and both ends of the outer extrusion rod exceed the outer wiping cloth layer along the axial direction of the base ring. Can improve the cleaning effect when cleaning the rag layer.
Preferably, the base ring is towards one side of the heat storage box is provided with a dust collecting groove for collecting dust which is scraped down by an inner wiping cloth layer on a heat absorption end of a heat pipe of the heat storage box part, an end cap sealing spring is further arranged on the base ring, a dust exhaust hole is formed in the lowest point of the bottom wall of the dust collecting groove, an end cap which is opened upwards is arranged in the dust exhaust hole, the end cap sealing spring is used for driving the end cap to seal the dust exhaust hole, the end cap is made of a ferromagnetic body, and an inner extrusion rod is provided with a magnet which is positioned between the end cap and an outer rotating shaft of the cleaning mechanism part and is adsorbed when the inner extrusion rod is aligned with the end cap so that the end cap is opened. In the cleaning process of the rag layer, when the inner extrusion rod rotates to be aligned with the plug, namely the magnet is closest to the plug, the magnet adsorbs the plug to open the plug. When the plugs and the magnets are staggered along the circumferential direction of the base ring, the adsorption force of the magnets to the plugs is reduced, and the plugs close the dust discharge holes again under the action of plug closing springs. The dust collected during the dust removal of the base ring is automatically discharged when the cleaning cloth layer is cleaned.
Preferably, an inner hole is arranged in the outer rotating shaft of the cleaning mechanism part, an inner rotating shaft of the cleaning mechanism part is arranged in the inner hole in a penetrating way, the inner rotating shaft of the cleaning mechanism part is connected with the inner rotating shaft driving motor, the outer rotating shaft of the cleaning mechanism part is eccentrically arranged with the inner rotating shaft of the cleaning mechanism part, the outer rotating shaft of the cleaning mechanism part is provided with a plurality of guide pipes which are distributed along the circumferential direction of the outer rotating shaft of the cleaning mechanism part and extend radially and penetrate through the inner hole, an extrusion rod connecting rod and an extrusion rod connecting rod inward moving spring for driving the extrusion rod connecting rod to move towards the inner hole are arranged in the guide pipe in a penetrating way, the inner end of the extrusion rod connecting rod is aligned with the circumferential surface of the inner rotating shaft of the cleaning mechanism part, the inner extrusion rod and the outer extrusion rod are connected to the outer end of the extrusion rod connecting rod, and the rotating angular speeds of the outer rotating shaft of the cleaning mechanism part and the inner rotating shaft of the cleaning mechanism part are unequal; when the extrusion rod connecting rod is positioned at the position where the gap between the outer rotating shaft of the cleaning mechanism part and the inner rotating shaft of the cleaning mechanism part is minimum, the inner end of the extrusion rod connecting rod is abutted against the peripheral surface of the inner rotating shaft of the cleaning mechanism part, the inner extrusion rod is pressed on the inner wiping cloth layer, and the outer extrusion rod and the outer wiping cloth layer are spaced; when the extrusion rod connecting rod is positioned at the maximum clearance between the outer rotating shaft of the cleaning mechanism part and the inner rotating shaft of the cleaning mechanism part, the inner end of the extrusion rod connecting rod is spaced from the inner rotating shaft of the cleaning mechanism part, the inner extrusion rod is spaced from the inner wiping cloth layer, and the outer extrusion rod presses the outer wiping cloth layer. This technical scheme makes inside and outside extrusion pole not only can follow base ring circumference and remove, can strike the rag layer moreover to improve the clean effect to the rag layer.
Preferably, two ends of the inner hole are sealed to form a rotating shaft part sealing cavity, only one end of a rotating shaft in the cleaning mechanism part is located in the rotating shaft part sealing cavity, the outer rotating shaft rotating structure is located outside the rotating shaft part sealing cavity, the rotating shaft part sealing cavity is connected with the air suction pump, the extrusion rod connecting rod is connected in the guide pipe in a sealing and sliding mode, and the guide sleeve is provided with a dust suction channel, wherein the inlet end of the dust suction channel faces towards the inner rubberizing layer and is communicated with the rotating shaft part sealing cavity. During the use, this raise dust that will strike the rag through bleeding adsorbs away to on the rag layer in can avoiding the raise dust to drop again, improved the effect when removing dust to the rag layer.
Preferably, the guide tube is spaced from the inner wipe layer. Prevent the rag layer from blocking the dust suction channel.
Preferably, one end of the inner hole is sealed by a rubber plate, the rotating shaft in the cleaning mechanism part penetrates through the rubber plate to enter the rotating shaft part sealing cavity, and the rubber plate is connected with the rotating shaft in the cleaning mechanism part in a sealing mode. The sealing connection between the inner and outer rotating shafts which rotate eccentrically can be conveniently realized.
Preferably, the outer rotating shaft rotating structure comprises an outer rotating shaft gear ring coaxially arranged on the outer rotating shaft of the cleaning mechanism part, a driving gear meshed with the outer rotating shaft gear ring, and an outer rotating shaft driving motor for driving the driving gear to rotate.
Preferably, the inner extrusion rod is connected with the outer rotating shaft of the cleaning mechanism part through an extrusion rod connecting rod, and the outer extrusion rod is connected with the extrusion rod connecting rod through an intermediate connecting rod. The structure is compact and good.
The technical scheme has the following advantages: the response time for generating steam is fast; the distance between the first heat exchanger body and the liquid level can be changed along with the change of the water level, so that the distance between the first heat exchanger body and the liquid level is kept unchanged, and the heat utilization rate is high; the stirrer is arranged to stir the water in the water storage tank, so that the water in contact with the heat exchanger is quickly changed, and the heat exchange effect is improved; during stirring, water pushes up from the lower part of the heat exchanger, and the water temperature at the lower part is low, so that the water in contact with the heat exchanger can keep a large temperature difference with the heat exchanger, and the heat exchange speed can be improved; the water is pushed upwards when the water level is deeper, so that the force for lifting the water is larger, if the force for pushing the water is kept unchanged, the water lifting speed is slow when the water is deep, the slow speed means that the water in contact with the heat exchanger is slow, and the slow speed means that the heat exchange speed is slow, so that the influence of the water depth on the heat exchange is large when the thrust is unchanged, and the inclination angle of the push plate is increased when the water depth is increased, so that the force for pushing the water is increased when the water depth is increased, and the influence of the water depth increase on the heat exchange speed can be reduced; the heating of the fluid by solar energy obtained by the field heat pipe is realized; the utilization rate of solar energy is high; the dust can be automatically removed from the heat absorption end of the heat pipe; can carry out self-cleaning to the rag layer of clean mechanism.
Drawings
FIG. 1 is a schematic view of the present invention;
FIG. 2 is an enlarged partial schematic view at A of FIG. 1;
FIG. 3 is a schematic view of the paddle as projected along direction B of FIG. 2;
FIG. 4 is a schematic cross-sectional view C-C of FIG. 3;
FIG. 5 is an enlarged partial schematic view of FIG. 1 at D;
fig. 6 is a schematic view of a solar heat pipe heating apparatus according to a second embodiment of the present invention;
FIG. 7 is a schematic view of the heat absorption end of the heat pipe of the heat storage tank section projected along the direction B of FIG. 6 when the heat absorption end is cleaned;
FIG. 8 is an enlarged partial schematic view of FIG. 7;
figure 9 is a schematic representation of the base ring as it is being cleaned viewed in a direction opposite to direction B of figure 6 and in cross-section;
FIG. 10 is an enlarged partial schematic view at C of FIG. 9;
fig. 11 is a partially enlarged schematic view of fig. 6 at D.
In the figure: the water storage tank comprises a water storage tank 1, a steam outlet 2, an inner surface 3 of the top wall of the water storage tank, a flexible liquid outlet pipe 4, a flexible rope 5, a heat exchanger floating ball 6 connected with a flexible liquid inlet pipe, a suspension member 7, a vertical rotating shaft 9, a motor 10, a stirring paddle 11, a push plate 12, a spring 13, a horizontal cylinder 14, a water inlet hole 15, a horizontal sliding pipe 16, a sliding pipe piston 17, a supporting rod 18, a cylinder piston 19, a hydraulic cavity 20, a cavity 21, a communicating hole 22, a connecting strip 27, a connecting seat 28, a shaft pin 29, an inclined plane 30, a water inlet joint 32, a liquid level 33, a heat release medium input pipe 34, a heat release medium output pipe 35, a water inlet cavity 36, a second heat exchanger 37, a first heat exchanger 38, a third heat exchanger 39, a water spray hole 40, a heat exchanger floating ball 41, a fourth heat exchanger 42, a flexible liquid inlet pipe 43, a pipeline 44, a rack translation mechanism 70, a heat, The heat absorption end 74 of the heat pipe of the heat storage box part, the cylindrical bulge 75, the connecting ring 76, the outer gear ring 77 of the connecting ring part, the rack 78, the driven gear 79, the rack driving motor 80, the base ring 81, the base ring lifting cylinder 82, the connecting strip 83, the connecting foot 84, the inner wiping cloth layer 85, the outer wiping cloth layer 86, the base ring storage space 87, the dust collecting groove 88, the plug sealing spring 89, the dust discharge hole 90, the plug 91, the vertical guide chute 92, the part 93 of the upper end surface of the plug outside the chute, the driving unit 94, the base 95, the connecting block 96, the guide rod 97, the screw rod 98, the screw rod driving motor 99, the bottom frame 100, the side supporting block 101, the outer rotating shaft 121 of the cleaning mechanism part, the inner rotating shaft driving motor 102, the inner extrusion rod 103, the outer extrusion rod 104, the magnet 105, the inner rotating shaft 106 of the cleaning mechanism part, the outer gear ring 107 of the outer rotating shaft part, the, A squeezing rod connecting rod inward moving spring 112, an intermediate connecting rod 113, a minimum clearance 114 between the cleaning mechanism part outer rotating shaft and the cleaning mechanism part inner rotating shaft, a maximum clearance 115 between the cleaning mechanism part outer rotating shaft and the cleaning mechanism part inner rotating shaft, a rotating shaft part sealing cavity 116, a suction pump 117, an inlet end 118, a dust suction passage 119, a rubber plate 120, a fluid output pipeline 121, a fluid input pipeline 122 and a circulating pump 123.
Detailed Description
The technical solution of the present invention is described in detail and fully with reference to the accompanying drawings.
First embodiment, referring to fig. 1, fig. 2, fig. 3, fig. 4, and fig. 5, a water pressure tilt angle adjustment type steam generation system for obtaining solar energy by using a heat pipe includes a steam generator and a solar heat pipe heating device.
The steam generator includes a water storage tank 1 and a stirrer stirring water in the water storage tank. The water storage tank is provided with a steam outlet 2. The inner surface 3 of the top wall of the water storage tank is a bevel. The steam outlet is connected with the highest point of the inner surface of the top wall of the water storage tank. The water storage tank is provided with a heat release medium input pipe 34, a heat release medium output pipe 35 and a water inlet cavity 36 positioned in the top wall of the water storage tank. The water storage tank is provided with a second heat exchanger 37, a first heat exchanger 38 and a third heat exchanger 39 from top to bottom. The second heat exchanger is fixed in the water storage tank. The second heat exchanger is exposed to the surface 33 of the water in the water storage tank. The inlet chamber is provided with a water jet 40 which sprays towards the second heat exchanger. The inlet end of the second heat exchanger is connected with the heat release medium input pipe, and the outlet end is connected with the upper end of the flexible liquid inlet pipe 43. The first heat exchanger is suspended in the water storage tank by a plurality of heat exchanger part floating balls 41. A fourth heat exchanger 42 is arranged in the water inlet cavity. The second heat exchanger, the first heat exchanger, the third heat exchanger and the fourth heat exchanger are connected in series between the water storage heat release medium input pipe and the heat release medium output pipe. The inlet chamber is provided with a water inlet connector 32. The third heat exchanger is fixedly connected with the water storage tank. The outlet end of the first heat exchanger is connected with the inlet end of the third heat exchanger through a flexible liquid outlet pipe 4. The third heat exchanger is fixed in the water storage tank and is positioned below the first heat exchanger. The outlet end of the third heat exchanger is connected to the inlet end of the fourth heat exchanger by a conduit 44. And the outlet end of the fourth heat exchanger is butted with the heat release medium output pipe. The heat exchanger part floating ball is connected with the first heat exchanger through a flexible rope 5. The lower end of the flexible liquid inlet pipe is connected with one of the heat exchanger floating balls, the heat exchanger floating ball 6 connected with the flexible liquid inlet pipe is of a hollow structure, and the heat exchanger floating ball connected with the flexible liquid inlet pipe is used for hanging the first heat exchanger through a hanging piece 7 of the hollow structure. The flexible liquid inlet pipe, the heat exchanger floating ball connected with the flexible liquid inlet pipe and the suspension member are connected in series to form a liquid conveying pipeline for inputting fluid into the first heat exchanger through the inlet end of the first heat exchanger.
The stirrer comprises a vertical rotating shaft 9, a motor 10 for driving the vertical rotating shaft to rotate and a plurality of stirring paddles 11 arranged on the vertical rotating shaft. The motor is positioned at the top of the water storage tank. The upper end of the vertical rotating shaft is connected with the motor and is suspended in the water storage tank. The stirring paddle is positioned below the first heat exchanger part. The stirring paddle is positioned above the third heat exchanger part. The stirring paddle comprises a push plate 12, a spring 13, a horizontal cylinder 14 with one end connected with a vertical rotating shaft, a horizontal sliding pipe 16 with one end connected with the other end of the horizontal cylinder, a sliding pipe part piston 17 connected with the horizontal sliding pipe in a sealing and sliding way, and a supporting rod 18 connected with the sliding pipe part piston and extending out of the horizontal sliding pipe through the other end of the horizontal sliding pipe. The spring is used for driving the holding rod to contract towards the inside of the horizontal sliding pipe. A cylinder piston 19 is connected in the horizontal cylinder in a sealing and sliding manner. The cylinder piston isolates a hydraulic chamber 20 in the horizontal cylinder on the side of the cylinder piston close to the slide pipe piston. The hydraulic chamber is filled with liquid. The hydraulic cavity is communicated with the horizontal sliding pipe. The space of the horizontal cylinder body, which is positioned at one side of the piston of the cylinder body part, far away from the hydraulic cavity, is provided with a water inlet hole 15. A cavity 21 is arranged in the vertical stirring shaft. The cavity is provided with a communicating hole 22 positioned below the horizontal cylinder body, and the communicating hole is specifically positioned on the lower end surface of the vertical rotating shaft. The water inlet hole is communicated with the cavity. The horizontal sliding pipe is connected with a connecting seat 28 through a connecting strip 27. The upper end of the push plate is hinged with the connecting seat through a shaft pin 29, and the lower end of the push plate is placed on the part of the holding rod positioned outside the horizontal smooth pipe. The included angle between the shaft pin and the horizontal sliding pipe is smaller than 90 degrees, specifically parallel to 0 degree. The shaft pin and the supporting rod are positioned behind the rotating direction of the supporting plate when the supporting plate is driven to rotate by the vertical rotating shaft. The distance between the contact part of the supporting rod and the push plate and the vertical plane passing through the axis of the shaft pin is increased along with the increase of the distance of the supporting rod from the horizontal smooth pipe, in particular to the inclined plane 30 formed by gradually reducing the thickness of the supporting rod in the horizontal direction from one end connected with the piston of the smooth pipe part to the other end. The inclined plane is positioned at one side of the supporting rod in the horizontal direction for supporting the push plate. The inclination angle of the supporting plate is 45 degrees when the supporting rod extends out of the horizontal smooth pipe to the limit position, and the supporting plate is in a vertical state when the supporting rod is inserted into the horizontal smooth pipe to the limit position. The area of the cylinder part piston is larger than that of the sliding pipe part piston. The radius of the piston of the cylinder part is 5 times of that of the piston of the sliding pipe part.
The solar heat pipe heating device includes a heat storage tank 71, a reflector driving mechanism 69, and a plurality of reflectors 72. The heat storage box is provided with a plurality of heat storage box part heat pipes which are arranged in parallel. The heat release end 73 of the heat pipe of the heat storage tank part is positioned inside the heat storage tank. The heat absorbing end 74 of the heat pipe of the heat storage tank portion is located outside the heat storage tank. The heat absorption end of the heat pipe of the heating box part is of a linear structure. The reflectors are correspondingly positioned below the heat pipes of the heat storage box part one by one. The heat storage tank is provided with a plurality of cylindrical protrusions 75. The heat pipes of the heat storage box part penetrate through the cylindrical bulge through the end surface of the cylindrical bulge in a one-to-one correspondence manner and are inserted into the heat storage box. The heat pipes of the heat storage box part are hermetically connected with the heat storage box. The reflector is provided with a coupling ring 76. The light reflecting plates are connected with the cylindrical bulges in a one-to-one correspondence manner. The connecting ring is sleeved on and can be rotatably connected to the cylindrical protrusion. The reflector driving mechanism includes a connecting ring portion outer gear ring 77 coaxially disposed on the connecting ring, a rack 78 engaged with the connecting ring portion outer gear ring, and a rack translation mechanism 70 driving the rack to make reciprocating linear motion. The outer gear rings of the connecting ring parts on all the reflectors are meshed on the same rack 78. The rack translation mechanism includes a rack drive motor 80 that rotates from the drive gear 79 and the drive gear, meshing with the rack. Of course, the rack translation mechanism can be a telescopic cylinder, the cylinder body of the telescopic cylinder is connected with the heat storage tank, the movable rod of the telescopic cylinder is connected with the rack, and the telescopic direction of the telescopic cylinder is the same as the extending direction of the rack. When the reflector is used, the rack is reciprocated and translated to drive the gear ring outside the connecting ring portion to rotate forwards and reversely, so that the reflector rotates to keep facing the sun all the time. The extending direction of the rotating axis of the reflector is the same as the extending direction of the heat absorbing end of the heat pipe of the heat storage box part. The generatrix of the reflecting surface (i.e. the inner peripheral surface) of the reflector is an arc line, and the central line of the circle where the arc is positioned is the rotation axis of the reflector. And the bus of the backlight surface of the reflector is an arc line, and the bus of the backlight surface of the reflector is coaxial with the bus of the backlight surface of the reflector.
The heat storage tank is connected with a heat release medium input pipe through a fluid output pipe 121 and connected with a heat release medium output pipe through a fluid input pipe 122, and a circulating pump 123 is arranged on the fluid input pipe.
When the water storage tank is used, water is filled into the water storage tank, the first heat exchanger can be suspended in the water storage tank by the first heat exchanger floating ball, and the fourth heat exchanger is stored in the water inlet cavity to submerge the fourth heat exchanger. Fluid (water and air) is filled in the heat storage tank, after the sun irradiates the heat absorption end of the heat pipe of the heat storage tank part, heat is absorbed by the heat absorption end of the heat pipe of the heat storage tank part and is radiated from the heat radiation end of the heat pipe of the heat storage tank part, so that the fluid in the heat storage tank is heated, and then under the action of the circulating pump, the fluid flows into the hot fluid in the heat storage tank through the heat radiation medium input pipe 34, sequentially passes through the first heat exchanger, the second heat exchanger, the third heat exchanger and the fourth heat exchanger, is output from the heat radiation medium output pipe 35 and flows back to the heat storage tank. Water in the water inlet cavity is sprayed onto the second heat exchanger to generate flash evaporation to form steam, the second heat exchanger and the third heat exchanger heat water in the water storage tank to generate steam, the fourth heat exchanger further absorbs waste heat, and the steam is output from the steam output port. The distance of the first heat exchanger body from the liquid surface is always kept constant when the liquid surface 33 changes. The vertical rotating shaft is driven by the motor to rotate in the heating process, the vertical rotating shaft drives the stirring paddle to rotate, so that water is stirred, and the water in contact with the heat exchanger is quickly changed as a result of stirring the water, so that the heat exchange effect is improved. This technical scheme is in the last water level fluctuation range of design, the water level is deepened then the floater is far away more apart from the distance of stirring rake (the end wall of cylinder body portion piston butt to the cylinder body when the water level surpasss the water level maximum value of design then the floater can not continue to move), water pressure makes connecting pipe portion piston move towards keeping away from vertical axis place direction and makes the volume in hydraulic pressure chamber diminish, the liquid in the hydraulic pressure intracavity is extruded in the water smooth pipe and overcome the elasticity drive holding rod of spring and stretch out, holding rod stretches out then the drive push pedal and uses the pivot to rotate and increase inclination as the axle, the power increase of push-up water when the push pedal rotates is then inclined angle increase. In the designed water level range, when the water level is reduced (when the water level exceeds the minimum value of the water level in the design, the sliding pipe part piston is driven by the spring to move to the limit position and can not move continuously), the water pressure is reduced, the supporting rod is contracted under the action of the spring, so that the liquid in the horizontal smooth pipe is driven to enter the hydraulic cavity, the connecting pipe part piston is driven to move towards the vertical rotating shaft, and the pressure balance of two sides of the cylinder part piston is kept.
The second embodiment is different from the first embodiment in that:
referring to fig. 7, 8, 9, 10, 11 and 6, a dusting mechanism and a base ring cleaning mechanism are also included. The dust removing mechanism comprises a plurality of base rings 81 which can be sleeved on the heat absorbing ends of the heat pipes of the heat storage box part in a one-to-one correspondence manner, a base ring translation mechanism which drives the base rings to do reciprocating translation motion along the extension direction of the heat absorbing ends of the heat pipes of the heat storage box part, and a base ring lifting cylinder 82 which drives the base ring translation mechanism to lift. Adjacent base rings are connected together by connecting strips 83. The connecting strip is provided with connecting feet 84 at both ends. The connection foot is connected on the terminal surface of base ring towards heat storage box one end and is realized the connection of connecting strip and base ring, and this connected mode can avoid the rotation of connecting strip interference extrusion strip. The inner circumference of the base ring is provided with an inner wipe layer 85. The inner wiping cloth layer is of an annular structure extending along the circumferential direction of the base ring. The inner wiping cloth layer is of an elastic structure and is made of sponge. An outer rag layer 86 is arranged on the peripheral surface of the base ring. The outer wiping cloth layer is of an elastic structure and is made of sponge.
The invention also includes a base ring storage space 87 at the end of the reflector remote from the heat storage tank. The base ring is separated from the heat absorption end of the heat pipe of the heat storage box part and then is positioned in the base ring storage space. The reflector plate is located outside the base ring storage space. One side of the base ring facing the heat storage box is provided with a dust collecting groove 88 for collecting dust wiped from the heat absorbing end of the heat pipe of the heat storage box part by the inner wiping cloth layer. The base ring is also provided with a plug sealing spring 89. The lowest point of the bottom wall of the dust collecting groove is provided with a dust discharging hole 90. A plug 91 which is opened upwards is arranged in the dust exhaust hole. The plug sealing spring is used for driving the plug to seal the dust discharging hole. The end face of the base ring is provided with a vertical guide chute 92 extending in the up-down direction. The plug is connected in the vertical guide chute in a sliding manner. The plug sealing spring is a pressure spring. The plug sealing spring is positioned in the vertical guide sliding groove. The part 93 of the upper end face of the plug outside the chute is an inclined plane sloping towards the end away from the base ring. The base ring translation mechanism comprises two drive units 94, between which all the base rings are located. The driving unit comprises a base 95, a connecting block 96, a guide rod 97 connected to the base, a screw rod 98 rotatably connected to the base, and a screw rod driving motor 99 for driving the screw rod to rotate. The guide rod is arranged on the connecting block in a penetrating way. The screw rod is in threaded connection with the connecting block. The connecting blocks are connected with the base rings on the extreme edges. The screw rod is parallel to the guide rod. The extending direction of the screw rod is the same as the extending direction of the heat absorbing end of the heat pipe of the heat storage box part. The two driving units share a screw rod driving motor. The base includes a base frame 100 and two side support blocks 101 connected at both ends of the base frame. The distribution direction of the two side supporting blocks is the same as the extending direction of the guide rod. Two ends of the guide rod are connected to the two side supporting blocks. Two ends of the screw rod are rotatably connected to the two side supporting blocks. The connecting block is located between the two side support blocks. The inner and outer peripheral surfaces of the base ring are concentric.
The process of dedusting the heat absorption end of the heat pipe of the heat storage box part and the reflecting surface of the reflecting plate comprises the following steps: the base ring translation mechanism drives the base ring to do left reciprocating linear motion so that the base ring moves back and forth between the two ends of the reflector. When the base ring moves towards the heat storage box, the base ring lifting cylinder jacks up the translation mechanism, so that the base ring moves upwards to abut against the inner wiping cloth layer and wraps the whole circumference of the lower surface of the heat absorption end of the heat storage box part heat pipe, the inner wiping cloth layer is spaced from the upper side surface of the heat absorption end of the heat storage box part heat pipe (namely, the inner wiping cloth layer is disconnected from the upper side surface of the heat absorption end of the heat storage box part heat pipe), the outer wiping cloth layer is spaced from the reflecting surface of the reflecting plate (namely, the outer wiping cloth layer is disconnected from the reflecting plate), therefore, in the moving process, only dust on the lower side part of the surface of the heat absorption end of the heat storage box. When the base ring moves towards the direction far away from the heat storage box, the translation mechanism is pulled down by the base ring lifting cylinder, so that the base ring moves downwards to the whole circumference of the upper surface of the heat absorption end of the heat storage box part heat pipe, the inner wiping cloth layer is spaced from the lower side surface of the heat absorption end of the heat storage box part heat pipe (namely disconnected and not contacted), the outer wiping cloth layer is in contact with the reflective surface of the reflective plate, so that the upper side part of the surface of the heat absorption end of the heat storage box part heat pipe and the reflective surface of the reflective plate are wiped for dust removal in the moving process, and the wiped dust falls in the base ring storage space
The base ring cleaning mechanism is positioned on one side of the base ring storage space, which is far away from the heat storage tank. The base ring cleaning mechanism comprises a plurality of cleaning mechanism outer rotating shafts 121 which can penetrate into the base ring in a one-to-one correspondence manner and an outer rotating shaft rotating structure which drives the cleaning mechanism outer rotating shafts to rotate. Each cleaning mechanism part outer rotating shaft is connected with 4 inner extrusion rods 103 for extruding the inner wiping cloth layer and 4 outer extrusion rods 104 for extruding the outer wiping cloth layer. The inner and outer extrusion rods are distributed along the circumferential direction of the outer rotating shaft of the cleaning mechanism part. When the base ring is sleeved on the outer rotating shaft of the cleaning mechanism part to a set position, the two ends of the inner extrusion rod exceed the inner wiping cloth layer along the axial direction of the base ring, and the two ends of the outer extrusion rod exceed the outer wiping cloth layer along the axial direction of the base ring. The plug is made of ferromagnet. The inner extrusion rod is provided with a magnet 105 which adsorbs the plug to open the plug when the inner extrusion rod is positioned between the plug and the outer rotating shaft of the cleaning mechanism part and is aligned with the plug. An inner hole is arranged in the outer rotating shaft of the cleaning mechanism part. An inner rotating shaft 106 of the cleaning mechanism part is arranged in the inner hole in a penetrating way. The cleaning mechanism portion inner rotary shaft is connected together with the inner rotary shaft drive motor 102. The outer rotating shaft rotating structure includes an outer rotating shaft portion outer gear ring 107 coaxially provided on the outer rotating shaft of the cleaning mechanism portion, a drive gear 108 engaged with the outer rotating shaft portion outer gear ring, and an outer rotating shaft drive motor 109 for driving the drive gear to rotate. All the outer rotating shaft rotating structures share one inner rotating shaft driving motor for driving, and of course, each of the outer rotating shaft rotating structures can also be used. The outer rotating shaft of the cleaning mechanism part and the inner rotating shaft of the cleaning mechanism part are eccentrically arranged. The outer rotating shaft of the cleaning mechanism part is provided with a plurality of guide tubes 110 which run through the inner hole and radially extend along the circumferential direction of the outer rotating shaft of the cleaning mechanism part. An extrusion rod connecting rod 111 and an extrusion rod connecting rod inward moving spring 112 for driving the extrusion rod connecting rod to move towards the inner hole are arranged in the guide pipe in a penetrating mode. The inner end of the connecting rod of the extrusion rod is aligned with the circumferential surface of the rotating shaft in the cleaning mechanism part. The inner extrusion rod is connected to the outer end of the extrusion rod connecting rod. The outer extrusion rods are connected to the extrusion rod connecting rods by intermediate connecting rods 113. The rotating angular speeds of the outer rotating shaft of the cleaning mechanism part and the inner rotating shaft of the cleaning mechanism part are unequal. When the extrusion rod connecting rod is positioned at the minimum gap 114 between the outer rotating shaft of the cleaning mechanism part and the inner rotating shaft of the cleaning mechanism part, the inner end of the extrusion rod connecting rod is abutted against the circumferential surface of the inner rotating shaft of the cleaning mechanism part, the inner extrusion rod is pressed on the inner wiping cloth layer, and the outer extrusion rod and the outer wiping cloth layer are spaced; when the connecting rod of the extrusion rod is positioned at the maximum position 115 of the gap between the outer rotating shaft of the cleaning mechanism part and the inner rotating shaft of the cleaning mechanism part, the inner end of the connecting rod of the extrusion rod is spaced from the inner rotating shaft of the cleaning mechanism part, the inner extrusion rod is spaced from the inner cleaning cloth layer, and the outer extrusion rod presses the outer cleaning cloth layer. The two ends of the inner hole are closed to form a rotating shaft part sealing cavity 116. Only one end of the rotating shaft in the cleaning mechanism part is positioned in the rotating shaft part sealing cavity. The outer rotating shaft rotating structure is positioned outside the rotating shaft sealing cavity. The shaft seal cavity is connected to the inlet of the air pump 117. The extrusion rod connecting rod is connected in the guide pipe in a sealing and sliding manner. The guide sleeve is provided with a dust suction channel 119, the inlet end 118 of which is communicated with the rotating shaft part sealing cavity of the inner wiping cloth layer. The guide pipe and the inner rag layer are always kept spaced. One end of the bore is closed by a rubber plate 120. The rotating shaft in the cleaning mechanism part passes through the rubber plate and enters the rotating shaft part sealing cavity. The rubber plate is connected with the rotating shaft in the cleaning mechanism part in a sealing way.
The process of cleaning the inner and outer cloth coating layers on the base ring comprises the following steps: the base ring is driven by the base ring driving mechanism to be sleeved on the outer rotating shaft of the cleaning mechanism part, the wall of the base ring is positioned between the inner extrusion rod and the outer extrusion rod, then the outer rotating shaft of the cleaning mechanism part and the inner rotating shaft of the cleaning mechanism part rotate and the air suction pump is started, and the inner extrusion rod and the outer extrusion rod generate reciprocating translation along the radial direction of the base ring while rotating along the circumferential direction of the base ring as a result of the rotation of the outer rotating shaft of the cleaning mechanism part and the inner rotating shaft of the cleaning mechanism part, so that the inner extrusion rod beats different parts of the inner wiping cloth layer, and dust on the inner wiping cloth layer falls off and the dust falling off from the inner wiping; the outer squeezing rod beats different parts of the outer wiping cloth layer so as to lead the dust on the outer wiping cloth layer to fall down. The magnet also enables the plug to be opened and the dust in the movable dust collecting groove to fall out.

Claims (10)

1. A water pressure inclination-adjusting type steam generation system with solar energy obtained by heat pipes comprises a water storage tank, wherein the water storage tank is provided with a steam outlet, and the water pressure inclination-adjusting type steam generation system is characterized by further comprising a solar heat pipe heating device, the solar heat pipe heating device comprises a heat storage box, a reflecting plate driving mechanism and a plurality of reflecting plates, the heat storage box is provided with a plurality of heat storage box part heat pipes which are arranged in parallel, the heat release ends of the heat storage box part heat pipes are located inside the heat storage box, the heat absorption ends of the heat storage box part heat pipes are located outside the heat storage box, the reflecting plates are located below the heat storage box part heat pipes in a one-to-one correspondence manner, and the reflecting plate driving mechanism is used for driving the reflecting plates to rotate; the water storage tank is internally provided with a first heat exchanger submerged in water in the water storage tank and a stirrer for stirring the water in the water storage tank, the water storage tank is provided with a heat release medium input pipe and a heat release medium output pipe, the inlet end of the first heat exchanger is connected with the heat release medium input pipe, the outlet end of the first heat exchanger is connected with the heat release medium output pipe, the stirrer comprises a vertical rotating shaft, a motor for driving the vertical rotating shaft to rotate and a plurality of stirring paddles arranged on the vertical rotating shaft, the stirring paddles are positioned below the first heat exchanger and comprise a push plate, a spring, a horizontal cylinder body with one end connected with the vertical rotating shaft, a horizontal sliding pipe with one end connected with the other end of the horizontal cylinder body, a sliding pipe part piston connected with the horizontal sliding pipe part piston in a sealing and sliding way and a supporting rod which is connected with the sliding pipe part piston and extends out of the horizontal sliding pipe through the other, the spring is used for driving the supporting rod to contract towards the inside of the horizontal sliding pipe, a cylinder part piston is connected in the horizontal cylinder body in a sealing sliding mode, a hydraulic cavity located on one side, close to the piston of the sliding pipe part, of the cylinder part piston is isolated in the horizontal cylinder body, liquid is filled in the hydraulic cavity, the hydraulic cavity is communicated with the horizontal sliding pipe, a water inlet hole is formed in the space, located on one side, far away from the hydraulic cavity, of the cylinder part piston of the horizontal cylinder body, the horizontal sliding pipe is provided with a connecting seat, the upper end of the push plate is hinged with the connecting seat through a shaft pin, the lower end of the push plate is placed on the part, located outside the horizontal sliding pipe, of the supporting rod, an included angle between the shaft pin and the horizontal sliding pipe is smaller than 90 degrees, and the distance between the part, in contact with the push plate, of the supporting rod and the vertical plane of the axis of the shaft pin, the area of the cylinder part piston is larger than that of the sliding pipe part piston; the heat storage box is connected with the heat release medium input pipe through a fluid output pipeline and connected with the heat release medium output pipe through a fluid input pipeline, and the fluid output pipeline or the fluid input pipeline is provided with a circulating pump.
2. The water pressure tilt-angle regulation steam generation system using the heat pipe to obtain solar energy according to claim 1, further comprising a second heat exchanger exposed on the liquid level of the water in the water storage tank, wherein the second heat exchanger and the first heat exchanger are connected in series between the water storage and heat release medium input pipe and the heat release medium output pipe, the water inlet cavity in the top wall of the water storage tank is provided with a water spray hole spraying towards the second heat exchanger, the inlet end of the second heat exchanger is connected with the heat release medium input pipe, the outlet end of the second heat exchanger is connected with the inlet end of the first heat exchanger, and the outlet end of the first heat exchanger is connected with the heat release medium output pipe.
3. A water pressure tilt-regulating steam generation system according to claim 2, wherein the first heat exchanger is suspended in the water storage tank by a plurality of heat exchanger portion floating balls, the inlet end of the first heat exchanger portion is connected to the outlet end of the second heat exchanger portion by a flexible liquid inlet pipe, and the outlet end of the first heat exchanger portion is connected to the heat releasing medium outlet pipe by a flexible liquid outlet pipe.
4. The water pressure tilt-angle regulation type steam generation system for obtaining solar energy by a heat pipe according to claim 3, further comprising a third heat exchanger located below the first heat exchanger and a third heat exchanger located in the water inlet cavity, wherein the second heat exchanger, the first heat exchanger, the third heat exchanger and the fourth heat exchanger are sequentially connected together and are connected in series between the water storage and heat release medium input pipe and the heat release medium output pipe, the third heat exchanger is fixedly connected with the water storage tank, the outlet end of the first heat exchanger is connected with the inlet end of the third heat exchanger through the flexible liquid outlet pipe, the outlet end of the third heat exchanger is connected with the inlet end of the fourth heat exchanger, and the outlet end of the fourth heat exchanger is butted with the heat release medium output pipe.
5. A heat pipe solar powered water pressure rake steam generation system as described in claim 4 wherein said paddle is located above said third heat exchanger.
6. A heat pipe solar powered water pressure gradient steam generating system as recited in claim 1 wherein the top wall of the water storage tank has an inclined inner surface and the steam outlet is in abutting contact with the highest point of the inner surface of the top wall of the water storage tank.
7. The water pressure tilt-adjusting steam generation system for obtaining solar energy by a heat pipe according to claim 1, wherein the solar heat pipe heating device further comprises a dust removal mechanism for removing dust from the heat absorption end of the heat pipe of the heat storage box part and the light reflection surface of the light reflection plate, the heat absorption end of the heat pipe of the heat storage box part is of a linear structure, the dust removal mechanism for the heat pipe of the heat storage box part comprises a plurality of base rings which can be sleeved on the heat absorption end of the heat pipe of the heat storage box part in a one-to-one correspondence manner, a base ring translation mechanism for driving the base rings to do reciprocating translational motion along the extension direction of the heat absorption end of the heat pipe of the heat storage box part, and a base ring lifting cylinder for driving the base ring translation mechanism to lift up and down, adjacent base rings are connected together through a connecting bar, an inner cloth; when the base ring lifting cylinder jacks up the translation mechanism, the inner wiping cloth layer is abutted with the lower side surface of the heat absorption end of the heat pipe of the heat storage box part and is spaced from the upper side surface of the heat absorption end of the heat pipe of the heat storage box part, and the outer wiping cloth layer is spaced from the light reflecting surface of the light reflecting plate; when the translation mechanism is pulled down by the lifting cylinder, the inner wiping cloth layer is disconnected with the lower side face of the heat absorption end of the heat storage box part heat pipe and is connected with the upper side face of the heat absorption end of the heat storage box part heat pipe in a butt mode, and the outer wiping cloth layer is connected with the light reflecting face of the light reflecting plate in a butt mode.
8. The water pressure tilt-adjustable steam generating system according to claim 7, further comprising a base ring cleaning mechanism for cleaning the base ring in a one-to-one correspondence manner, wherein the inner and outer circumferential surfaces of the base ring are concentric, the base ring cleaning mechanism comprises an outer rotating shaft of the cleaning mechanism part capable of penetrating into the base ring, an outer rotating shaft rotating structure for driving the outer rotating shaft of the cleaning mechanism part to rotate, a plurality of inner extrusion rods for extruding the inner cleaning cloth layer and a plurality of outer extrusion rods for extruding the outer cleaning cloth layer, the inner and outer extrusion rods are connected with the outer rotating shaft of the cleaning mechanism part, and the inner and outer extrusion rods are distributed along the circumferential direction of the outer rotating shaft of the cleaning mechanism part.
9. The water pressure tilt-adjusting steam generation system according to claim 8, wherein a dust collecting groove is disposed on a side of the base ring facing the heat storage box for collecting dust scraped from the heat absorbing end of the heat storage box by the inner coating layer, a plug sealing spring is further disposed on the base ring, a dust discharging hole is disposed at a lowest point of a bottom wall of the dust collecting groove, a plug opened upward is disposed in the dust discharging hole, the plug sealing spring is used for driving the plug to seal the dust discharging hole, the plug is made of a ferromagnetic material, and a magnet is disposed on the inner extrusion rod for absorbing the plug when the inner extrusion rod is located between the plug and the outer rotating shaft of the cleaning mechanism and aligned with the plug so as to open the plug.
10. The water pressure tilt-adjusting steam generating system according to claim 8, wherein the cleaning mechanism portion outer shaft has an inner bore, the inner bore has a cleaning mechanism portion inner shaft, the cleaning mechanism portion inner shaft is connected to an inner shaft driving motor, the cleaning mechanism portion outer shaft is eccentric to the cleaning mechanism portion inner shaft, the cleaning mechanism portion outer shaft has a plurality of guide tubes extending radially and circumferentially along the cleaning mechanism portion outer shaft and penetrating through the inner bore, the guide tubes have an extrusion rod connecting rod and an extrusion rod connecting rod inner displacement spring for driving the extrusion rod connecting rod to move toward the inner bore, the inner end of the extrusion rod connecting rod is aligned with the circumferential surface of the cleaning mechanism portion inner shaft, the inner and outer extrusion rods are connected to the outer end of the extrusion rod connecting rod, the rotating angular speeds of the outer rotating shaft of the cleaning mechanism part and the inner rotating shaft of the cleaning mechanism part are unequal; when the extrusion rod connecting rod is positioned at the position where the gap between the outer rotating shaft of the cleaning mechanism part and the inner rotating shaft of the cleaning mechanism part is minimum, the inner end of the extrusion rod connecting rod is abutted against the peripheral surface of the inner rotating shaft of the cleaning mechanism part, the inner extrusion rod is pressed on the inner wiping cloth layer, and the outer extrusion rod and the outer wiping cloth layer are spaced; when the extrusion rod connecting rod is positioned at the maximum clearance between the outer rotating shaft of the cleaning mechanism part and the inner rotating shaft of the cleaning mechanism part, the inner end of the extrusion rod connecting rod is spaced from the inner rotating shaft of the cleaning mechanism part, the inner extrusion rod is spaced from the inner wiping cloth layer, and the outer extrusion rod presses the outer wiping cloth layer.
CN202010288292.9A 2020-04-14 2020-04-14 Water pressure tilt angle adjusting type steam generation system for obtaining solar energy by heat pipe Withdrawn CN111425833A (en)

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CN202010288292.9A CN111425833A (en) 2020-04-14 2020-04-14 Water pressure tilt angle adjusting type steam generation system for obtaining solar energy by heat pipe

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Application Number Priority Date Filing Date Title
CN202010288292.9A CN111425833A (en) 2020-04-14 2020-04-14 Water pressure tilt angle adjusting type steam generation system for obtaining solar energy by heat pipe

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Citations (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN101975463A (en) * 2010-10-25 2011-02-16 张晋 Light concentrating and collecting device of solar energy thermoelectric unit by parabolic cylinder
CN203771734U (en) * 2014-03-11 2014-08-13 浙江煜腾新能源股份有限公司 Focusing energy storage solar water heater
CN206965740U (en) * 2017-06-30 2018-02-06 海宁胜晖新材料科技有限公司 A kind of agitating device
CN108050502A (en) * 2017-12-28 2018-05-18 郑州源冉生物技术有限公司 A kind of helix tube generates the energy conservation and environmental protection warming stove of steam
CN110822731A (en) * 2019-11-28 2020-02-21 江苏桑力太阳能产业有限公司 A solar water heating equipment that is used for heating efficiency of house to be high

Patent Citations (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN101975463A (en) * 2010-10-25 2011-02-16 张晋 Light concentrating and collecting device of solar energy thermoelectric unit by parabolic cylinder
CN203771734U (en) * 2014-03-11 2014-08-13 浙江煜腾新能源股份有限公司 Focusing energy storage solar water heater
CN206965740U (en) * 2017-06-30 2018-02-06 海宁胜晖新材料科技有限公司 A kind of agitating device
CN108050502A (en) * 2017-12-28 2018-05-18 郑州源冉生物技术有限公司 A kind of helix tube generates the energy conservation and environmental protection warming stove of steam
CN110822731A (en) * 2019-11-28 2020-02-21 江苏桑力太阳能产业有限公司 A solar water heating equipment that is used for heating efficiency of house to be high

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Application publication date: 20200717