KR20050080026A - Apartment wall adhension two axle auto solar track thermoelectric generation equipment - Google Patents

Apartment wall adhension two axle auto solar track thermoelectric generation equipment Download PDF

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Publication number
KR20050080026A
KR20050080026A KR1020050059553A KR20050059553A KR20050080026A KR 20050080026 A KR20050080026 A KR 20050080026A KR 1020050059553 A KR1020050059553 A KR 1020050059553A KR 20050059553 A KR20050059553 A KR 20050059553A KR 20050080026 A KR20050080026 A KR 20050080026A
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wall
vertical
house
plate
collecting plate
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KR1020050059553A
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Korean (ko)
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손성일
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손성일
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    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02SGENERATION OF ELECTRIC POWER BY CONVERSION OF INFRARED RADIATION, VISIBLE LIGHT OR ULTRAVIOLET LIGHT, e.g. USING PHOTOVOLTAIC [PV] MODULES
    • H02S20/00Supporting structures for PV modules
    • H02S20/30Supporting structures being movable or adjustable, e.g. for angle adjustment
    • H02S20/32Supporting structures being movable or adjustable, e.g. for angle adjustment specially adapted for solar tracking
    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02SGENERATION OF ELECTRIC POWER BY CONVERSION OF INFRARED RADIATION, VISIBLE LIGHT OR ULTRAVIOLET LIGHT, e.g. USING PHOTOVOLTAIC [PV] MODULES
    • H02S20/00Supporting structures for PV modules
    • H02S20/20Supporting structures directly fixed to an immovable object
    • H02S20/22Supporting structures directly fixed to an immovable object specially adapted for buildings
    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02SGENERATION OF ELECTRIC POWER BY CONVERSION OF INFRARED RADIATION, VISIBLE LIGHT OR ULTRAVIOLET LIGHT, e.g. USING PHOTOVOLTAIC [PV] MODULES
    • H02S40/00Components or accessories in combination with PV modules, not provided for in groups H02S10/00 - H02S30/00
    • H02S40/40Thermal components
    • H02S40/44Means to utilise heat energy, e.g. hybrid systems producing warm water and electricity at the same time
    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02BCLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
    • Y02B10/00Integration of renewable energy sources in buildings
    • Y02B10/10Photovoltaic [PV]
    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02BCLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
    • Y02B10/00Integration of renewable energy sources in buildings
    • Y02B10/20Solar thermal
    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02BCLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
    • Y02B10/00Integration of renewable energy sources in buildings
    • Y02B10/70Hybrid systems, e.g. uninterruptible or back-up power supplies integrating renewable energies
    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E10/00Energy generation through renewable energy sources
    • Y02E10/40Solar thermal energy, e.g. solar towers
    • Y02E10/47Mountings or tracking
    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E10/00Energy generation through renewable energy sources
    • Y02E10/50Photovoltaic [PV] energy
    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E10/00Energy generation through renewable energy sources
    • Y02E10/50Photovoltaic [PV] energy
    • Y02E10/52PV systems with concentrators
    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E10/00Energy generation through renewable energy sources
    • Y02E10/60Thermal-PV hybrids

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  • Engineering & Computer Science (AREA)
  • Architecture (AREA)
  • Civil Engineering (AREA)
  • Structural Engineering (AREA)
  • Life Sciences & Earth Sciences (AREA)
  • Sustainable Development (AREA)
  • Photovoltaic Devices (AREA)

Abstract

본 발명은 아파트,빌딩,빌라,상가등과 같은 고층건물에서도 태양열과 태양광에 의해 생산되는 난방온수 및 전기를 통합하여 생산하여 아파트의 난방온수 및 사용되는 전기를 생산할 수 있도록 건물외벽 및 발코니,아파트벽 부착 2축 자동 태양추적 열전기발전설비에 관한 것이다.The present invention is to integrate the heating hot water and electricity produced by solar heat and solar light in high-rise buildings such as apartments, buildings, villas, shopping malls, etc. to produce the heating hot water and electricity used in the building exterior walls and balconies, The present invention relates to a two-axis automatic solar tracking thermoelectric power plant with apartment walls.

Description

아파트벽 부착 2축 자동 태양추적 열전기발전설비{ APARTMENT WALL ADHENSION TWO AXLE AUTO SOLAR TRACK THERMOELECTRIC GENERATION EQUIPMENT}2-axis Automatic Solar Tracking Thermoelectric Power Plant with Apartment Wall {APARTMENT WALL ADHENSION TWO AXLE AUTO SOLAR TRACK THERMOELECTRIC GENERATION EQUIPMENT}

본 발명은 물리,전기,전자,재료.기계공학등 여러분야의 기술이 접목되었고 기존의 태양열 및 태양광 설비는 고정식이 주류를 이루고 있으며, 최근 상기 두 분야에서 효율을 향상 시키고자 자동 추적식 및 렌즈집광식 설비가 많이 개발되고 있지만 옥상 및 넓은 지역에서만 설치가 가능하고 우리나라 전체 보급주택중 반 상을 차지하는 고층아파트,빌딩,빌라,상가등에는 설치의 여려운점이 있고 태양열에 있어 효율이 매우 낮아 급탕용으로만 사용하고 있고 태양광에 있어서도 가격대비 설치비 및 효율이 매우 낮으므로 난방온수와 전기를 저렴한 가격에 동시에 같이 쓸 수 있는 설치가 쉬운 통합형 아파트 부착형 2축 자동추적 열전기발전설비가 개발되지 않아 대체에너지의 보급확산의 장애로 남아있다.In the present invention, the technology of physics, electricity, electronics, materials, mechanical engineering, etc. have been combined, and the existing solar and solar equipments have become a fixed type mainstream, and in recent years, the automatic tracking and Although many lens concentrating facilities are being developed, it can be installed only on rooftops and large areas, and it is difficult to install in high-rise apartments, buildings, villas, shopping malls, etc., which occupy half of all supply houses in Korea. As it is used only for hot water supply, and installation cost and efficiency is very low even in solar light, an integrated apartment-attached 2-axis automatic tracking thermoelectric power generation facility that can use both heating water and electricity at a low price at the same time is not developed. As a result, it remains a barrier to the spread of alternative energy.

본 발명이 이루고자 하는 기술적 과제로 초속 150m 의 바람에 영향을 받지않는 아파트벽 부착 2축 자동추적 열전기발전설비중에서 2축으로 자동 추적할 수 있는 경량화된 구조물과 방위각과 고도각으로 이동하는 태양의 위치를 아파트 벽면의 좁은 공간에서도 추적할 수 있도록 하는것이며, 추적장치에 있어서 정밀한 제어기능을 수행하면서도 장치비용이 저렴한 설비를 제작하는 것을 과제로 하고 있고 또한 난방온수와 전기를 동시에 통합적으로 얻을수 있도록 열전기발전장치를 발명하는 것이 과제이다.The technical problem to be achieved by the present invention is a lightweight structure that can be automatically tracked in two axes in the apartment wall-mounted 2-axis automatic tracking thermoelectric power generation equipment not affected by the wind of 150m per second and the position of the sun moving at azimuth and altitude It is to make it possible to track in a narrow space on the wall of an apartment, and it is a task to manufacture a facility with low equipment cost while performing precise control function in the tracking device. Also, it is possible to integrate heating hot water and electricity at the same time. It is a problem to invent an apparatus.

가번집열판하우스(1)의 제원은 폭이 90cm 길이가 190cm로 반원형 형상을 하고 있으며, 총 집열면적이 6.84㎡이며, 4개로 구성되어 한대의 설비로 구성되고 상기의 상부면은 투명강화유리판(19)이 밀폐설치되어 먼지로 인한 오염과 온도하강을 방지한다. 외부면은 3mm정도의 폭으로 에프알피로 구성되고 외부면의 안쪽면은 발포우레탄폼으로 성형한 폭 50mm 단열재가 중간에 위치하고 내부면의 바깥쪽과 밀착되고 내부 에프알피는 2mm폭으로 구성되고 도6에서 가번집열판하우스(1)의 중간 위치에 "U"자형의 집광반사판(18)이 지지대로 고정되어 위치하며,재질은 두께 5mm로 스테인레스로 연마한 밀러판을 사용하고 상기 중심부에 온수 및 전기를 생산하는 내부가 진공상태로 투명 파이렉스 60mm 유리관으로 열전기발전유리관(15)이 지지대에 의해 고정 설치되고 유리와 금속의 결합은 초음파로 용접한다.Gabon collection plate house (1) has a semicircular shape with a width of 90cm and a length of 190cm, the total collection area is 6.84㎡, consisting of four units consisting of one facility, the upper surface of the transparent tempered glass plate (19 ) Is sealed to prevent contamination and temperature drop due to dust. The outer surface is composed of FRP with a width of about 3mm, the inner surface of the outer surface is 50mm wide insulated with foamed urethane foam and is in close contact with the outside of the inner surface. The inner RF is composed of 2mm wide. At 6, the "U" shaped condenser reflecting plate 18 is fixed to the support in the middle position of the heat collecting plate house 1, and the material is made of stainless steel polished miller plate with a thickness of 5 mm and the hot water and electric In the vacuum to produce a transparent Pyrex 60mm glass tube in the thermoelectric power generation glass tube 15 is fixed by the support and the combination of glass and metal is welded by ultrasonic.

내부구성은 상세도 도7과2에서 볼수 있듯이 반도체 성질을 가진 이종 금속재료로서 음극인 가열부에 흑색 이산화티타늄이 증착된 텔루르화비스무트판(15-1)( 폭 32cm인 판을 주름식으로 폭을 5cm로 줄이고 길이는 180cm이다.)과 양극부인 전자포집부 텔루르화납관(15-2)외부는 흑색 이산화티타늄이 증착되고 열전기발전유리관(15)을 통해 생산된 전기를 이용해 수소저장탱크(57)와 일체형으로 설치되어 있는 수소발생전기분해기(57-1)가 설치된 별도 탱크{(재질은 두께 2cm 에프알피로 구성된다.)(구리전극판 두개가 인버터(55)와 전선으로 연결되어 변환된 교류전기를 이용해 물을 전기분해한다.)}를 통해 수소가스를 생산하여 내부는 금속재로 마감되어 있고 외부가 에프알피로 폭이 2cm로 저장용량이 100ℓ구성되는 수소저장탱크(57)에 저장하여 날씨가 흐린 경우 및 한파 때 연료전지스텍(57-3)에서 {수소연소후 물은 수소이송관(57-5)을 통해 수소발생전기분해기(57-1)로 재순환되어 사용한다.}전기를 생산하여 여름철 에어콘 가동 에너지로 사용하고 또한 겨울철 난방용 온수를 얻기 위해 축열탱크(54)내 전열기(61)를 작동시켜 내부물을 가열한다. (상기 수소탱크는 가스누출 및 폭발 위험성을 방지 하기 위해 고 기밀성 배관 및 연결프랜지를 사용하고 수소가스누출자동감지기(57-2)를 설치하여 가스누출시 수소발생전기분해기(57-1)를 작동 중단과 동시 수소이송자동개폐기(57-4)를 작동 중단시키고 운영중인 인버터(55)에서 생산되는 전기를 자동 차단하여 안전을 확보한다.)The internal structure is a bimetallic bismuth telluride plate 15-1 in which black titanium dioxide is deposited on a heating part as a cathode as a dissimilar metal material having semiconductor properties as shown in FIGS. 7 and 2 in detail. And the length is 180 cm.) And the outer portion of the electron collecting portion lead telluride tube (15-2), which is the anode portion, is deposited with black titanium dioxide and the hydrogen storage tank (57) using electricity produced through the thermoelectric glass tube (15). ) And a separate tank equipped with a hydrogen generating electrolyzer (57-1) installed integrally with each other ((The material is composed of 2 cm thick RF). (Copper electrode plate is connected to the inverter 55 and wires and converted Hydrogen gas is produced by using alternating current electricity.)} Hydrogen gas is produced inside, and the inside is finished in a metallic material, and the outside is stored in a hydrogen storage tank 57 having a storage capacity of 100 cm with a width of 2 cm. When the weather is cloudy In cold weather, fuel cell stack 57-3 (after hydrogen combustion, water is recycled to hydrogen generating electrolyzer 57-1 through hydrogen transfer pipe 57-5) produces electricity and operates air conditioning in summer In addition, to heat the winter by operating the heater 61 in the heat storage tank 54 to obtain hot water for heating in winter. (The hydrogen tank uses a high hermetic pipe and a connection flange to prevent the risk of gas leakage and explosion, and installs a hydrogen gas leak automatic detector 57-2 to operate the hydrogen generating electrolyzer 57-1 when gas leaks. At the same time, the hydrogen transfer automatic switch 57-4 is stopped and the electricity produced by the inverter 55 in operation is automatically shut off to ensure safety.)

상세 설명에서,열전발전유리관(15)내부의 텔루르화비스무트판(15-1)과 텔루르화납관(15-2)사이 상부 및 하부 전극판(15-3)을 설치하고 전극판(15-3)에 전력이송용 전선(15-4)을 설치하여, 10kW/h 시설용량인 인버터(55)를 이용해 직류로 생산된 전기를 교류로 변환시킨다. 텔루르화비스무트판(15-1)에 350℃ 이상의 태양빛을 집광하여 투사시키면 상기판의 뒷면에서 전자들이 방출하여 전극판(15-3) 및 진공상태인 공간을 통해 텔루르화납관(15-2)의 앞면에 방출된 전자들이 포집되고 이때 텔루르화납관(15-2)에서 기전력이 발생하여 전기를 생산한다.In the detailed description, the upper and lower electrode plates 15-3 are provided between the bismuth telluride plate 15-1 and the lead telluride tube 15-2 in the thermoelectric glass tube 15, and the electrode plate 15-3 is provided. By installing the power transfer wire (15-4) in the), and converts the electricity produced by direct current to alternating current using an inverter 55 of 10kW / h facility capacity. When condensing and projecting sunlight at 350 ° C. or higher onto bismuth telluride plate 15-1, electrons are emitted from the back side of the plate, through the electrode plate 15-3 and the space in a vacuum state. Electrons emitted to the front of the) are collected and electromotive force is generated in the lead telluride tube 15-2 to produce electricity.

상기 기전력은 온도가 상승하면 저항값의 증가로 전기 생산양이 급격히 낮아짐으로 저항을 낮추기위해서 도7과15 에서 볼수 있듯이, 전자포집부인 한면이 직사각형판 형태와 반대면은 원형관 모양에 부착된 형태로 서로 밀착연결된 형상의 텔루르화납관(15-2)으로 순환펌프(56)에(상기 펌프는 오일이송용펌프 및 다이프램을 사용한다.) 의해 열전기발전유리관유입구(22-1)와 굴절오일이송관(15-5)과 연결된 관을 통해 축열탱크(54)의 하부 설치된 열방출교환기(59)에 연결된 열방출교환기배출구(54-1)를 통해 20℃ 가량의 에틸글리세린이 가번집열판하우스(1)의 열전기발전유리관유입구(22-1)로 유입되어 텔루르화납관(15-2)을 통과하면서 내부 열을 낮추고 열전기발전유리관배출구를(22)를 통해 연결된 집열판오일이송관(15-6)을 통해 나번집열판하우스(2)의 열전기발전유리관(15)의 열전기발전유리관유입구(22-1)를 거쳐 상기 내부 열을 낮추고 열전기발전유리관배출구(22)를 거쳐 다번집열판하우스(3)의 열전기발전유리관유입구(22-1)을 통해 상기 내부 열을 낮추고 열전기발전유리관배출구(22)를 거쳐 집열판오일이송관(15-6)을 통해 라번집열판하우스(4)의 열전기발전유리관유입구(22-1)를 거쳐 상기 내부 열을 낮추고 열전기발전배출구(22)를 통해 집열판오일이송관(15-6)을 거쳐 가번집열판하우스(1)의 가열판유입구(20)쪽으로 순환되어 우측코일가열관(16-1)을(코일관은 구리관을 나선형태로 길이가 14m이다.) 거쳐 가열판(도5에서) 오일이송관(17-3)을 통해 이송되어 우측가열판(16)에 의해 가열된 에틸글리세린은 {가열판은 구리판에 흑색티타늄이 증착되고 상기 뒷면 "ㄷ" 형상의 25mm 구리 굴절관이 190cm 길이로 위치하고 서로 초음파용접된다. 상기 집열판하우스 한개당 관의 길이는 17m이다. 코일관과 가열관의 길이 총합은 31m로 이는 한대의 상기 집열판하우스내 85.6℃ 가량되는 복사열을 흡수할 수 있는 관길이 30m를 초과하므로 유량시간에 따른 한대의 집열판하우스에 의해 복사가열되는 에틸글리세린의 온도는6℃ 가량됨} 도15에서 코일가열관오일이송관(17-2)을 통해 좌측코일가열관(17-1)를 거쳐 좌측가열판(17)으로 유입되어 가열된 에틸글리세린은 가열판배출구(21)를 통해 집열판오일이송관(15-6)을 거쳐 나번집열판하우스(2)의 우측코일가열관(16-1)과 가열판오일이송관(17-3)을 거쳐 우측가열판(16)에서 가열되어 코일가열관오일이송관(17-2)을 통해 좌측코일가열관(17-1)에서 가열되고 가열판오일이송관(17-3)을 거쳐 좌측가열판(17)에서 가열되어 집열판오일이송관(15-6)을 거쳐 다번집열판하우스(3)의 우측코일가열관(16-1)에서 가열되고 가열판오일이송관(17-3)을 거쳐 우측가열판(16)에서 가열되어 코일가열관오일이송관(17-2)를 거쳐 좌측코일가열관(17-1)에서 가열되고 가열판오일이송관(17-3)을 거쳐 좌측가열판(17)에서 가열되어 집열판오일이송관(15-6)을 거쳐 라번집열판하우스(4)의 우측가열코일관(16-1)에서 가열되고 가열판오일이송관(17-3)을 거쳐 우측가열판(16)에서 가열되고 코일가열관오일이송관(17-2)을 통해 좌측코일가열관(17-1)에서 가열되고 가열판오일이송관(17-3)을 거쳐 좌측가열판(17)에서 가열되어 집열판오일이송(15-6)을 거쳐 순환과정을 거치면, 최종 에틸글리세린의 온도는 85.6℃로 가열되어 굴절오일이송관(15-5)를 거쳐 열방출교환기유입구(54-2)를 거쳐 축열탱크(54)내 열방출교환기(59)를{열방출교환기(59)는 구리로된 원형관 형태로 충진된 에틸글리세린용량은 250ℓ이고 인체에 무해한 흑색 무기안료가 첨가된다.}거치면서 에틸글리세린에 축적된 열 에너지를 축열탱크(54)내 저장된 2160ℓ물을 85.6℃까지 간접가열시키고 반복순환된다.As the electromotive force is lowered as the temperature increases, the amount of electricity is sharply lowered due to the increase in the resistance value, so as to lower the resistance, as shown in FIGS. 7 and 15, the one side of the electron collecting part is attached to the round tube shape on the opposite side to the rectangular plate shape. The thermoelectric power glass tube inlet 22-1 and the refraction oil by the circulating pump 56 (the pump uses an oil transfer pump and a diaphragm) by the lead telluride tube 15-2 having a shape in which the wire is connected closely to each other. Ethyl glycerine having a temperature of about 20 ° C. is temporarily collected through a heat discharge exchanger outlet 54-1 connected to a heat discharge exchanger 59 installed at a lower portion of the heat storage tank 54 through a pipe connected to the transfer pipe 15-5. The heat collecting plate oil transfer pipe (15-6) connected to the thermoelectric power generation glass tube inlet (22-1) and connected to the thermoelectric power generation glass tube outlet (22) while lowering the internal heat while passing through the lead-telefluoride tube (15-2). Thermoelectricity of the second heat collector house (2) through The internal heat is lowered through the thermoelectric power generation glass tube inlet 22-1 of the all glass tube 15 and through the thermoelectric power generation glass tube inlet 22-1 of the heat collecting plate house 3 through the thermoelectric power generation glass tube outlet 22. Lower the internal heat and lower the internal heat through the thermoelectric power glass tube outlet 22 through the thermoelectric power glass tube inlet 22-1 of the heat collecting plate oil house (15-6) through the heat collecting plate oil transfer pipe (15-6). (22) is circulated to the heating plate inlet 20 of the temporary heat collecting plate house (1) through the heat collecting plate oil transfer pipe (15-6) to the right coil heating tube (16-1) (coil pipe spirals the copper pipe) The length of the furnace is 14 m.) Ethylglycerin, which is transferred through the heating plate (Fig. 5) through the oil transfer pipe 17-3 and heated by the right heating plate 16, is obtained by depositing black titanium on the copper plate. 25 mm copper refractors in the "c" shape are 190 cm long and Ultrasonic welding. The length of the pipe per one heat collecting plate house is 17m. The total length of the coil tube and the heating tube is 31m, which exceeds the length of the tube capable of absorbing radiant heat of about 85.6 ° C. in one of the heat collecting plate houses, and thus the amount of ethyl glycerin heated by the heat collecting plate house according to the flow time. The temperature is about 6 ° C.} In FIG. 15, the ethyl glycerine introduced into the left heating plate 17 through the coil heating pipe oil transfer pipe 17-2 and the left coil heating pipe 17-1 is heated. 21 through the heat collecting plate oil transfer pipe (15-6) through the right coil heating pipe (16-1) and the heating plate oil transfer pipe (17-3) of the heat collecting plate house (2) of the Naban heating plate 16 in the right heating plate (16) And heated in the left coil heating tube 17-1 through the coil heating tube oil transfer tube 17-2 and heated in the left heating plate 17 through the heating plate oil transfer tube 17-3. 15-6) is heated in the right coil heating tube (16-1) of the heat collecting plate house (3) and the heating plate It is heated in the right heating plate 16 via the work conveying pipe 17-3, is heated in the left coil heating pipe 17-1 via the coil heating pipe oil conveying pipe 17-2, and the heating plate oil transport pipe 17-. 3) is heated in the left heating plate (17) through the heat collecting plate oil transfer pipe (15-6) and heated in the right heating coil pipe (16-1) of the Raban collecting plate house (4) and heated plate oil transfer pipe (17-3) Heated in the right heating plate (16) through the coil heating tube oil transfer pipe (17-2) and heated in the left coil heating pipe (17-1) through the heating plate oil transfer pipe (17-3) through the left heating plate ( 17) is heated in the heat collecting plate oil transfer (15-6) and the circulation process, the temperature of the final ethyl glycerol is heated to 85.6 ℃, through the refractory oil transfer pipe (15-5) heat exchanger inlet (54-2) Through the heat dissipation exchanger 59 in the heat storage tank 54 (The heat dissipation exchanger 59 is 250 liters of ethyl glycerine filled in the form of a round tube made of copper. A black inorganic pigment is added.} Is heated while passing through the indirect heat energy stored in the glycerin ethyl 2160ℓ water stored in the heat storage tank 54 to 85.6 ℃ and repeat cycle.

상기 탱크의 상부면에 압력조절탱크(58)가 설치되어 압력을 조절한다. 85.6℃로 가열된 에틸글리세린이 다시 텔루르화납관(15-2)로 유입된다면 상기에서 설명한 온도상승으로 인한 저항의 증가로 전기 생산양이 감소하므로 열방출교환기(59)를 이용해 열을 축열탱크(54)의 물에 에틸글리세린에 축적된 열에너지를 방출해 20℃ 정도로 온도를 낮추어 순환펌프(56)를 이용해 텔루르화납관(15-2)으로 이송시킨다.Pressure control tank 58 is installed on the upper surface of the tank to adjust the pressure. When ethylglycerin heated to 85.6 ° C is introduced into the lead telluride tube 15-2 again, the amount of electricity produced decreases due to the increase in resistance due to the temperature rise described above, and thus heat is stored using the heat dissipation exchanger 59. Emission of thermal energy accumulated in ethyl glycerin in water of 54) is lowered to about 20 ° C., and is transferred to the lead telluride tube 15-2 by using a circulation pump 56.

구름이 있는날 일사량이 부족하므로 난방온수로 사용할수 있는 적정온도 40℃이하로 내려가면 제어기(53)에 의해 축열탱크(54) 외부면 하단부에 설치된 온도계(62)값을 디지털로 변환 판독하여 프로그램화된 중앙연산처리장치 출력부로 전기적 신호로 축열탱크(54)외부면 하단부에 설치된 전열기(61)를 작동시켜 축열탱크물을 난방이 가능한 온도40℃ 이상으로 유지시킨다.상기의 작동방식은 일체형인 제어기(53)와 실내온도조절기(60)를 통신포트를 이용해 실내에서 작동을 조절할 수 있도록 한다.Since the amount of insolation on a cloudy day is insufficient, when the temperature falls below 40 ° C., which can be used as heating hot water, the controller 53 converts and reads the value of the thermometer 62 installed at the lower end of the heat storage tank 54 into a digital program. The heat treatment tank 61 is installed at the lower end of the outer surface of the heat storage tank 54 by an electric signal to the output of the centralized processing unit to maintain the temperature of the heat storage tank at a temperature of 40 ° C. or higher that can be heated. The controller 53 and the indoor temperature controller 60 can control the operation indoors using the communication port.

(상기에서 텔루르화금속 축출법은 구리 제련시 양극 광니에 산화배소잔여물을 염기에 녹여 아텔루르산이온을 만들고 염산으로 중화시켜 이산화텔루르를 얻어 다시 수산화나트륨용액에 녹여 양극에 철 , 음극에 스테인레스강을 이용 ,전기분해하여 음극에서 텔루르를 석출한다.) 도1.2.3.5.6 에서 가번집열판하우스(1)의 세로방향의 양쪽면 중앙 지점에 집열판하우스연결판(5)이 집열판하우스연결구멍(6)에 스테인레스볼트로 상기 집열판하우스와 상호 서로 체결하고 상기판에 고정되어 돌출된 원형축인 가번집열판하우스하부연결축(7)과 가번집열판상부하우스연결축(11)은 하부연결축지지베어링(13)과 상부연결축지지베어링(14)에 의해 직사각형태로 가로 450cm 세로 210cm 크기이고 재질은 알루미늄합금으로 가로 및 세로 폭이 6cm 프로파일을 사용한 집열판하우스지지구조물(23)에 세로로 체결 고정되고 집열판하우스수직지지구조물(23-1)은 상기 구조물 중앙부에 수직으로 설치되어 지지구조물의 비틀림을 잡아준다. 상기 나번집열판하우스(2),다번집열판하우스(3),라번집열판하우스(4)등도 상기와 같은 형태로 체결고정된다. 상기 지지구조물 세로방향 상부 및 하부면 중앙에서 상부로 10cm 지점에 우측집열판하우스지지구조물연결축(24)과 좌측집열판하우스지지구조물연결축(25)등이 설치되고 상기 부품은 베어링이 장착된 우측벽연결축지지대(26-2)와 좌측벽연결축지지대(27-2)가 연결 체결되고(부착벽면에서 상기 양쪽 연결축지지대까지의 길이는 130cm이다.)(In the above method, the metal telluride extraction method dissolves the residue of oxidized oxide in the anode photonic furnace in copper smelting to make atherosion ions, neutralizes with hydrochloric acid to obtain tellurium dioxide, and then dissolves in sodium hydroxide solution. Electrolytically, steel is used to precipitate tellurium at the cathode.) In Fig. 1.2.3.5.6, the heat collecting plate house connecting plate 5 is located at the center of both sides of the longitudinal collecting plate house 1 in the longitudinal direction. 6) is connected to the heat collecting plate house with a stainless bolt to each other and fixed to the plate is a circular shaft projecting heat collecting plate house lower connecting shaft (7) and Gabon collecting plate upper house connecting shaft (11) is a lower connecting shaft support bearing ( 13) and the upper connecting shaft support bearing (14) is rectangular in the shape of 450cm in length and 210cm in size, and the material is aluminum alloy 6cm in width and length in profile Mouse support is fastened vertically in the structure 23 houses a vertical support structure, the panels (23-1) gives out a twisting of the support structure is provided perpendicular to the center structure. The heat collecting plate house (2), the heat collecting plate house (3), Rachan collecting plate house (4), etc. are also fastened and fastened in the same form as described above. The right collecting plate house support structure connecting shaft 24 and the left collecting plate house supporting structure connecting shaft 25 and the like are installed at 10 cm from the center of the upper and lower surfaces in the longitudinal direction of the supporting structure. The connecting shaft support 26-2 and the left wall connecting shaft support 27-2 are connected and fastened (the length from the attaching wall surface to the both connecting shaft supports is 130cm.)

상기 구성요소들은 우측벽부착연결판(26)과 좌측벽부착연결판(27)에 용접 체결되며, 상기 연결판을 아파트 외벽 및 발코니에 부착하기 위해 우측벽부착연결판구멍(26-1)과 좌측벽부착연결판구멍(27-1)등에 지름 15mm 스테인레스 볼트를 각각 4개씩 콘크리트벽에 밖아 단단하게 고정시킨다. 상기 외벽부착연결판의 상부 연결축의 구조물 면에 상층 발코니 및 벽에 고정시키기 위해 우측수직벽부착연결지지대(28)과 좌측수직벽부착연결지지대(29)를 볼트로 체결하여 연결시키고 양파이프의 끝면 우측수직벽부착연결판(30)과 좌측수직벽부착연결판(32)을 볼트로 체결하여 우측수직벽부착연결판구멍(31)과 좌측수직벽부착연결판구멍(32-1)에 15mm 스테인레스볼트를 각각 4개씩 체결고정시킨다. 수직방향 구동부에서, 수직디씨모터수평지지대(34)는 양쪽이 볼트로 체결된 우측벽부착연결판(26)과 좌측벽부착연결판(27) 중앙부에 중앙부에 수직디씨모터레일지지대(33)가 체결되고 중앙부에 수직디씨모터연결축(35)이 체결 되고 (상기축 끝면에 수직고도각검출기(37-1)이 부착된다.) 상기 축에 상하로 작동되는(재료는 경량화를 목적으로 가로,세로 8cm 프로파일 사용) 수직모터이송레일(36)이 설치되고(프로파일 형상은 "T"자 형상)상기 레일면 상부면에 "T"자 형상에 맞는 왕복이송되는 슬라이드씩 수직디씨모터체결판(37-3)이 끼워지고 상기 판위 감속비율이 1500:1인 감속기가 (추적각도 0.05°) 체결된 수직고도각디씨모터(37)가 부착하고 감속기축에 수직고도각이송스크류(38)가 연결 고정되고 수직모터이송레일(36)의 끝면 나사산으로 가공된 너트를 관통하여 "ㄷ"자형체결판(38-1)의 중앙부를 관통해 스러스트베어링(40)이 체결되고 강풍 및 태풍에 의한 좌우 비틀림에 의한 연결축의 변형을 방지코자 수직방향에서 좌우로 굴절되는 수직고도각이송스크류굴절체결판(39)이 위치하고 상기의 체결판 중앙 상부에 "ㄷ"자형연결축(38-2)이 위치하고 집열판하우스지지구조물(23)의 중앙부에 연결지지대(42)가 체결 및 연결 되도록 상기 중앙부 연결축(41)으로 연결 체결한다.수직고도각디씨모터(37)를 비 및 먼지로부터 보호하기 위해 수직부모터덮개(37-2)를 설치한다.The components are welded to the right side wall connecting plate 26 and the left side wall connecting plate 27, and the right side wall connecting plate hole 26-1 for attaching the connecting plate to the apartment exterior wall and balcony. Four stainless steel bolts of diameter 15 mm are attached to the left side wall-mounted connection plate holes 27-1, etc., and firmly fixed to the concrete wall. The right vertical wall attachment connecting support 28 and the left vertical wall attachment connecting support 29 are fastened by bolts to be fixed to the upper floor balcony and the wall on the structure surface of the upper connecting shaft of the outer wall attachment connecting plate, and the end face of the onion pipe 15 mm stainless steel in the right vertical wall connecting plate hole 31 and the left vertical wall connecting plate hole 32-1 by fastening the right vertical wall connecting plate 30 and the left vertical wall connecting plate 32 with bolts. Tighten four bolts each. In the vertical drive unit, the vertical DC motor horizontal support 34 has a vertical DC motor rail support 33 in the center portion at the center of the right side wall connection plate 26 and the left side wall connection plate 27, both of which are bolted together. The vertical DC motor connecting shaft 35 is fastened to the center part (the vertical elevation detector 37-1 is attached to the end of the shaft) and operated vertically on the shaft (the material is horizontal, 8 cm profile is used) Vertical motor transfer rail 36 is installed (profile shape is "T" shape) vertical DC motor fastening plate (37) slides reciprocated to the "T" shape on the upper surface of the rail surface (37) -3) is fitted and the vertical elevation angle motor 37 with the speed reducer (tracking angle 0.05 °) fastened to the plate reduction ratio 1500: 1 is attached and the vertical elevation feed screw 38 is fixed to the reducer shaft. And thread the nut machined into the end face of the vertical motor feed rail (36). Vertical high-angle transfer in which the thrust bearing 40 is fastened through the center of the "c" shaped fastening plate 38-1 and is deflected from side to side in the vertical direction in order to prevent deformation of the connecting shaft caused by strong wind and typhoon. The screw refractive fastening plate 39 is located and the "c" shaped connecting shaft 38-2 is located at the center of the fastening plate and the connection support 42 is fastened and connected to the central portion of the heat collecting plate house support structure 23. Connect to the center connecting shaft 41. The vertical motor cover 37-2 is installed to protect the vertical angle angle motor 37 from rain and dust.

도4의 상세도에서 볼수 있듯이 수평방향구동부에서, 집열판하우스지지구조물(23)의 단면이 정사각형 형태의 상부 정면부에 설치된 상부연결축지지베어링(14)과 하부연결축지지베어링(13)과 간섭되지 않도록 세로 상부면에 수평방위각모터체결판(46)을 고정 설치하고 상기 체결판위 수평방위각모터(43)를 체결하고 상기 축에 1500:1 비율의 감속기를 설치하고(추적 각도 0.1°) 감속기축에 체인풀리를 장착하고 도4에서 볼수 있듯이 가번집열판하우스(1)의 상부연결축지지베어링(14)을 통해 돌출되어 있는 가번집열판하우스상부연결축(11)과 집열판하우스지지구조물(23)이 간섭을 일으키지 않도록 적정 거리에 수평방위각제어체인(47)을 걸수 있도록 상부에 가번수평방위각상부체인풀리(48)를 설치하고 상기 하부면의 하부위치에 하부연결축지지베어링(13)에 고정체결되어 회전이되는 가번집열판하우스하부연결축(7)을 연결하고 나번집열판하우스(2)의 상부 나번집열판하우스상부연결축(11-1) 상부에 가번집열판하우스(1)의 고정된 가번수평방위각하부체인풀리(48-1)를 설치하여 나번집판하우스상부연결축(11-1)상부 하단에 나번수평방위각하부체인풀리(48-2)를 설치하여 수평방위각제어체인(47)으로 연결하고 하부에 나번집열판하우스하부연결축(8)에 연결하고 다번집열판하우스(3)의 상부 다번집열판하우스상부연결축(12)에 다번수평방위각상부체인풀리(48-5)를 설치하여 수평방위각제어체인(47)을 걸어 나번수평방위각상부체인풀리(48-3)를 연결하고 다번 상기축 하부지점에 고정된 다번수평방위각하부체인풀리(48-4)를 설치하고 하부 다번집열판하우스하부연결축(9)을 연결하고 라번집열판하우스(4)의 상부 라번집열판하우스상부연결축(12-1)에 라번수평방위각체인풀리(48-6)를 설치하여 수평방위각제어체인(47)으로 다번수평방위각하부체인풀리(48-5)를 걸어 서로 연결고 하부 라번집열판하우스하부연결축(10)을 연결 체결한다. 수평방위각검출기(44)는 가번집열판하우스(1)의 가번집열판하우스상부연결축(11) 상부면에 회전부를 설치하고 고정부는 집열판하우스지지구조물(23)에 고정시킨다.As can be seen in the detail of FIG. 4, in the horizontal direction drive section, the heat collecting plate house support structure 23 has a cross section interfering with the upper connecting shaft support bearing 14 and the lower connecting shaft support bearing 13 installed in the upper front part of the square shape. The horizontal azimuth motor fastening plate 46 is fixedly installed on the vertical upper surface, and the horizontal azimuth motor 43 is fastened on the fastening plate, and a gearbox of 1500: 1 ratio is installed on the shaft (tracking angle 0.1 °). As shown in FIG. 4, the chain pulley is mounted on the upper row of the row collecting plate house, which is projected through the upper connecting shaft support bearing 14 of the row collecting plate house 1, and the collection plate house supporting structure 23. In order to hang the horizontal azimuth control chain 47 at an appropriate distance so that the horizontal azimuth upper chain pulley 48 is installed on the upper part and fixed to the lower connecting shaft support bearing 13 at the lower position of the lower surface. Gabon heat collecting plate house lower connecting shaft (7) is fastened and rotated on the upper portion of the Nagar heat collecting plate house (2) the upper Gabon heat collecting plate house upper connecting shaft (11-1) fixed Gabon heat collecting plate house (1) The lower chain pulley (48-1) is installed to install the lower horizontal azimuth lower chain pulley (48-2) at the bottom of the upper part of the upper connecting shaft (11-1) of the collector plate and connect it to the horizontal azimuth control chain (47). The horizontal azimuth control chain (48-5) by connecting it to the bottom connection shaft (8) of the second collecting plate house on the upper connecting shaft (12) of the upper multiple collecting plate house (12) of the multiple collecting plate house (3). 47) Walk the horizontal horizontal upper square chain pulley (48-3) and install the horizontal horizontal lower square chain pulley (48-4), which is fixed at the lower point of the shaft, and the lower multi-coupling plate house lower connecting shaft (9) And the upper Raburn collection of the Raburn collection house (4) Raban horizontal azimuth chain pulley (48-6) is installed on the upper connection shaft (12-1) of the house, and the horizontal azimuth lower chain pulley (48-5) is connected to each other with a horizontal azimuth control chain (47). Connect the bottom connection shaft (10) of the house. The horizontal azimuth angle detector 44 installs a rotating part on the upper surface of the row collecting plate house upper connection shaft 11 of the row collecting plate house 1 and fixes the fixing part to the collecting plate house support structure 23.

〈구름 없이 맑은날 수직고도각 및 수평방위각 실시 작동예〉〈Operating Example of Vertical Altitude and Horizontal Azimuth on Clear Days without Clouds〉

수직고도각 제어에서, 구름이 없고 맑은날의 태양위치 추적방법은 도10의 상세도서 볼수 있듯이 가번집열판하우스(1)의 가로 하단부 광센서상자연결판(52)과 서로 부착된 광센서상자(49)상부에 자외선 차단필름 및 먼지제거광촉매가 코팅된 유리판이 부착된 광센서상자구멍(51) 하부면에 다섯개의 CDS센서(50)가 위치하고 상기 센서가 햇빛에 노출될 경우 상기 센서들은 기전력 발생으로 저항이 5V에서 2V까치 변화하므로 변화된 저항값은 제어기(53)의 마이크로프로세스내의 중앙연산처리장치의 입력부로 전송되고 프로그램 개발자에 의해 짜여진 프로그램의 순서도에 따라 낮아진 저항값에 대응하는 다음 동작을 수행토록 출력부로 전기신호를 단락시켜 수직고도각디씨모터(37)를 정지킨다(도11에서 참조). 도12에서 볼수 있듯이,15초후 태양의 위치가 정지위치에서 다시 상승으로 움직일 경우 CDS센서(50)의 저항값은 투광되는 빛의 양이 동등하지 않으므로 순간적으로 5V 수준으로 상승되고(햇빛이 투광되지 않을 경우) 상기와 같은 경우 프로그램은 저항값을 낮추도록 프로그램이 작성되었기 때문에 다시 상승방향으로(프로그램적으로 정오 12시를 지나면 상승방향으로 움직이지 않고 하강방향으로만 작동한다.)움직인 태양을 추적하기 위해 제어기(53)의 출력부를 통해 전기적신호를 수직디씨모터부착수평지지대(34)에 부착한 수직디씨모터레일지지대(33)의 중앙부 측면 수직디씨모터연결축(34)이 위치하고 상기 축에 수직모터이송레일(36)이 체결되며,상기 레일면 위 위치한 수직고도각디씨모터(37)에 인가하면 시계방향으로 회전하며, 상기 모터축과 부착된 1000:1 감속기의 축에 연결된 수직고도각이송스크류(38)도 또한 시계방향으로 회전하고 상기 스크류 상부면과 연결된 수직고도각이송스크류굴절체결판(39)이 상승 방향으로 작동하면 집열판하우스지지구조물(23)도 상승방향으로 작동하다가 CDS센서(50)가 태양과 일직선상에 놓이면 투광되는 빛의 양이 동등하므로 2V로 저항값이 낮아짐으로 수직고도각디씨모터(37)는 정지하여(도11에서 보듯이) 집광반사판(18)이 지속적으로 초점을 형성할 수 있도록하여 온수와 전기를 얻도록한다.In the vertical altitude control, the sun position tracking method on a cloudless and clear day is as shown in the detailed diagram of FIG. 10, the optical sensor box connecting plate 52 and the optical sensor box 49 attached to each other at the horizontal lower part of the Gabon collector house 1. Five CDS sensors 50 are placed on the lower surface of the optical sensor box hole 51 on which the glass plate coated with the UV blocking film and the dust removing photocatalyst is located on the upper part, and the sensors are exposed to the generation of electromotive force when exposed to sunlight. Since the resistance changes from 5V to 2V, the changed resistance value is transmitted to the input of the central processing unit in the microprocess of the controller 53 and performs the next operation corresponding to the lowered resistance value according to the flow chart of the program written by the program developer. The electrical signal is shorted to the output section to stop the vertical high angle DC motor 37 (see FIG. 11). As can be seen in Fig. 12, when the position of the sun moves upward again from the stop position after 15 seconds, the resistance value of the CDS sensor 50 rises to 5V instantaneously because the amount of light emitted is not equal (the sunlight is not transmitted). In this case, the program is written to lower the resistance value. Therefore, the program is operated in the upward direction again (operating only in the downward direction without moving in the upward direction after 12 noon programmatically). The vertical DC motor connecting shaft 34 of the central side of the vertical DC motor rail support 33, which attaches an electrical signal to the vertical DC motor mounting horizontal support 34, is located on the shaft for tracking. The vertical motor transfer rail 36 is fastened, and when applied to the vertical high angle DC motor 37 located above the rail surface, rotates in a clockwise direction, and is attached to the motor shaft 100. The vertical elevation feed screw 38, which is connected to the shaft of the 0: 1 speed reducer, also rotates clockwise and the vertical elevation feed screw refraction plate 39 connected to the upper surface of the screw is operated in the ascending direction. (23) also operates in the upward direction, when the CDS sensor 50 is in line with the sun, since the amount of light emitted is equal, the resistance value is lowered to 2V, so that the vertical elevation angle motor 37 is stopped (Fig. 11). As shown in the), the light reflecting plate 18 can be continuously focused to obtain hot water and electricity.

수평방위각 제어에서, 도13에서 보듯이 다섯개 CDS센서(50)에 투광되는 햇빛의 면적이 동등하므로 기전력에 의한 저항값은 5V로 상승하여 제어기(53)의 마이크로프로세스내 중앙연산처리장치입력부로 전송되어 프로그램화된 순서도 절차에 따라 모터작동을 멈추기 위해 전기신호를 단락시켜 수평방위각디씨모터(43)를 정지시켜 가번집열판하우스(1)가 태양과 일직선으로 위치가 놓이도록하여 고온의 태양에너지를 집광하여 전기 및 온수를 생산하도록한다. 도14에서 보듯이 태양의 위치가 정지에서 서쪽으로 이동하면 CDS센서(50)의 투광면적이 동등하지 않으므로 기전력은 5V에서 2V수준으로 하강한 저항값은 중앙연산처리장치내 입력부로 인가되고 저항값을 높이도록 프로그램화 되었기 때문에 전기적신호를 집열판하우스지지구조물(23)의 세로면의 상부에 고정된 수평방위각디씨모터(43)의 (감속비율이 1500:1인 감속기가 장착되고 감숙기축에는 체인을 걸수 있는 풀리가 장착된다.)In the horizontal azimuth control, as shown in Fig. 13, since the area of sunlight emitted by the five CDS sensors 50 is equal, the resistance value due to electromotive force rises to 5V and is transmitted to the central processing unit input unit in the microprocess of the controller 53. In order to stop the motor operation according to the programmed flow chart procedure, the electric signal is shorted to stop the horizontal azimuth angle motor 43 so that the temporary heat collecting plate house 1 is positioned in a straight line with the sun to collect high temperature solar energy. To produce electricity and hot water. As shown in Fig. 14, when the position of the sun moves westward from the stop, the emission area of the CDS sensor 50 is not equal, so the electromotive force is lowered from 5V to 2V, and the resistance value is applied to the input unit of the central processing unit and the resistance value is Since it is programmed to increase the electrical signal, the gearbox of the horizontal azimuth DC motor 43 fixed to the upper part of the vertical surface of the heat collecting plate house support structure 23 (the reduction ratio of 1500: 1 It is equipped with a hanging pulley.)

풀리에 수평방위각제어체인(47)이 설치되어 가번수평방위각상부체인풀리(48)와 연결되고 같은 축에 고정된 가번수평방위각하부체인풀리(48-1)는 나번수평방위하부체인풀리(48-2)와 체인으로 연결되고 같은 축에 고정 체결된 나번수평방위각상부체인풀리(48-3)는 다번수평방위각상부체인풀리(48-5)와 체인으로 연결되고 같은 축에 고정 체결된 다번수평방위각하부체인풀리(48-4)는 라번수평방위각체인풀리(48-6)와 체인으로 연결되어 역회전방향으로 시키면 가,나,다,라번 상기 집열판하우스(1),(2),(3),(4)들이 서쪽방향으로 이동하다가 태양과의 위치가 일치되면 정지하여 상기 가,나,다,라 집열판하우스(1),(2),(3),(4)들이 최대의 집열을 할 수 있도록 태양광 초점을 형성하도록한다. (수평방위각 작동에서 상기의 집열판 하우스들은 서쪽방향으로만 작동되도록 프로그램화 되었고 일몰후 태양의 초기 위치인 서쪽으로 향하도록 자동 작동한다.)The horizontal azimuth chain pulley 48, which is installed on the pulley and connected with the horizontal azimuth upper chain pulley 48, and fixed to the same axis, is a horizontal azimuth chain pulley 48-. 2) The horizontally angular upper chain pulley (48-3), which is connected to the chain and fixed on the same shaft, is connected to the horizontally angular upper chain pulley (48-5), and is horizontally fixed on the same shaft. The lower chain pulley (48-4) is connected to the Raburn horizontally angular chain pulley (48-6) in a reverse rotation direction, and then, in the reverse direction, G, B, C, Raburn the heat collecting plate house (1), (2), (3) And (4) move westward and stop when the sun's position coincides with the sun. To help form the solar focus. (In horizontal azimuth operation, the collector plates houses are programmed to operate only in the west direction and automatically operate toward the west, the initial position of the sun after sunset.)

〈 구름이 있을 경우 수직고도각 및 수평방위각 실시 작동예 〉〈Operating Example of Vertical Altitude and Horizontal Azimuth Angle in the Clouds〉

수직고도각 제어에서 도8에서 볼수 있듯이 수직고도각검출기(37-1)는 상부와 하부가 원형회전되는 납작한 원형형태로 하부는 수직디씨모터연결축(35)에 고정시키고 상부는 수직디씨모터레일지지대(33)에 고정시켜 상기 레일지지대의 상하 작동으로 상기 일정 간격으로 배열된 수/발광다이오드의 전기적신호가 제어기(53)의 입력부로 전송되고 중앙연산처리의 연산과정을 통해 태양의 고도각을 시간대별로 판독해 구름이 있더라도 시간대별로 상기 집열판하우스들의 수직고도각을 제어하여 일치시킨다.As shown in FIG. 8 in the vertical elevation control, the vertical elevation detector 37-1 has a flat circular shape in which a top and a bottom are circularly rotated, and the bottom is fixed to the vertical DC motor connecting shaft 35 and the top is a vertical DC motor rail. The electrical signals of the male / light emitting diodes arranged at the predetermined intervals by being fixed to the support base 33 and being moved up and down by the rail support are transmitted to the input unit of the controller 53 and the altitude angle of the sun is calculated through the calculation process of the central calculation process. Read by time zone, even if there is a cloud to control the vertical altitude angle of the heat collector house by time zone to match.

상세설명에서, 고정부 내부 가번수광다이오드(37-4)가 15°도각 간격으로 180°반원형으로 위치하고 회전부 내부는 가번집열판하우스(1)와 수직으로 위치하는 정중앙 반원형내부 한개의 가번발광다이오드(37-5)가 설치된다. 수직고도각검출기(37-1)는 측면에서 볼때 360°도 원형으로 수직부방향으로 설치되고 내부 가번수광다이오드(37-4)는 원형중 반쪽부만 설치된 형태이고 다른 반대쪽은 가번수광다오드(37-4)가 설치되지 않은 형태로 수직방향으로 설치된다.상기에서 고정부 가번수광다이오드(37-4)의 0°도각은 태양이 서쪽으로 일몰된 후 집열판하우스지지구조물(23)이 수직형태로 위치하는데 상기 레일지지대의 과도한 위치 이탈을 막기위해 회전부 가번발광다이오드(37-5)를 이용해 전기적 신호를 식별하는데 사용하고 또한 일출 초기 집열판하우스지지구조물(23)을 태양의 위치와 일치시키기 위해 0°도각으로 위치시킨다. 만약 강한 북서풍이나,강풍,태풍에 의해 상기 구조물이 파손될 경우가 발생하므로 바람의 저항면적을 줄이기 위해 회전부 가번발광다이오드(37-5)를 고정부 30°도각에 위치한 가번수광다이오드(37-4)와 일치되도록 위로 상승시켜 서로 신호가 감지되면 수직고도각디씨모터(37)를 정지시킨다.In the detailed description, the fixed part inner light-emitting diode 37-4 is 180 ° semi-circular at 15 ° angle intervals, and the inside of the rotating part is a single light-emitting diode 37 inside a central semi-circle in which it is located perpendicular to the street light collector house 1. -5) is installed. The vertical elevation detector 37-1 is installed in the vertical direction in a 360 ° circular direction when viewed from the side, and the internal light-receiving diode 37-4 is provided with only one half of the circle, and the other side is a reverse light receiving diode ( 37-4) is installed in the vertical direction without the installation. In the above, the 0 ° angle of the fixed part numbered light emitting diodes 37-4 is the vertical shape of the heat collecting plate house support structure 23 after the sun is set to the west. It is used to identify the electrical signal by using the turntable light emitting diodes 37-5 to prevent excessive deviation of the rail support, and to match the position of the sun to the sun collection plate house support structure 23 at sunrise. Place it at an angle. If the structure is damaged by strong northwest wind, strong wind, or typhoon, the turntable light emitting diode 37-5 is placed on the fixed part 30 ° angle to reduce the area of wind resistance. When the signal is sensed with each other by rising upward to match the vertical altitude angle motor 37 stops.

자세한 시간과 가번수광다이오드(37-4)내용은 다음과 같다.Details of the time and the provisional light-emitting diode 37-4 are as follows.

10°각은 8시17분에 해당하고 20°는 8시34분, 30°는 8시 51분,40°는 9시08분, 50°는 9시25분, 60°는 9시52분, 70°는10시09분,80°는 10시26분, 90°는 10시43분, 100°는 11시, 110°는 11시17분, 120°는 11시34분, 130°는 11시49분, 140°는 12시에 해당하는 각도값들이다. 도7에서 집열판하우스지지구조물(23)이 제어기(53)에 의해 10시경에 CDS센서(50)를 이용해 태양을 추적하다가 구름이 2시간동안 머무르고 있을 경우 상기 제어기(53)내 마이크로프로세스 중앙연산처리장치에서 프로그램화된 순서도에 따라 프로세스 내부 타이머의 시간값 10시에서 2시간이 경과한 12시에 해당하는 회전부 가번발광다이오드(37-5)를 이용해 고정부 가번수광다이오드(37-4)를 식별하기 위해 중간 각도인 80°해당하는 10시26분에 집열판하우스지지구조물(23)를 정지시키고 , 90°에 해당하는 10시43분에 상기 지지구조물을 정지시키고, 100°에 해당하는 11시에 상기 지지구조물을 정지시키고, 110°에 해당하는 11시17분에 정지시키고, 120°에 해당하는 11시34분에 상기 지지구조물을 정지시키고, 130°에 해당하는 11시49분에 상기 상기지지구조물을 정지 시키는 과정을 거쳐 집열판하우스지지구조물(23)을 위로 상승시켜 12시에 해당하는 가번수광다이오드(37-4)를 회전부가번발광다이오드(37-5)와의 전기적 신호가 감지될 때 집열판하우스지지구조물(23)를 운전과 정지를 반복시켜 태양에너지를 지속적으로 얻을수 있도록 한다. 오후 12시이후 집열판하우스지지구조물(23)은 상승하지않고 하강만되도록 프로그램화되었으며, 140°가번수광다이오드(37-4)는 상기 지지구조물의 이탈을 막는 역할을 한다.The 10 ° angle corresponds to 8:17, 20 ° is 8:34, 30 ° is 8:51, 40 ° is 9:08, 50 ° is 9:25, and 60 ° is 9:52 , 70 ° is 10:09, 80 ° is 10:26, 90 ° is 10:43, 100 ° is 11:11, 110 ° is 11:17, 120 ° is 11:34, 130 ° At 11:49, 140 ° is the angle value corresponding to 12 o'clock. In FIG. 7, the heat collecting plate house support structure 23 tracks the sun using the CDS sensor 50 at 10 o'clock by the controller 53, and when the cloud stays for 2 hours, the microprocess central processing in the controller 53 is performed. The fixed part numbered light emitting diodes 37-4 are identified using the rotating part numbered light emitting diodes 37-5 corresponding to the time value 10 to 2 hours of the in-process timer, according to the flow chart programmed in the device. In order to stop the heat collecting plate house support structure 23 at 10:26 corresponding to an intermediate angle of 80 °, the support structure is stopped at 10:43 corresponding to 90 °, and 11 o'clock corresponding to 100 °. Stopping the support structure, stopping at 11:17 corresponding to 110 °, stopping the support structure at 11:34 corresponding to 120 °, and supporting the support at 11:49 corresponding to 130 °. To stop the structure Through the process, the heat collecting plate house support structure 23 is raised upward, and when the electrical signal is sensed with the rotatable light emitting diode 37-4 corresponding to 12 o'clock, the heat collecting plate house support structure ( 23) Repeat operation and stop so that you can get solar energy continuously. After 12 pm, the heat collecting plate house support structure 23 was programmed not to rise but only to descend, and the 140 ° turn light-emitting diode 37-4 serves to prevent departure of the support structure.

수평방향제어에서, 도9에서 볼수 있듯이 ,수평방위각검출기(44)는 상하가 독립적으로 회전되는 원형으로 납작한 형태이고 고정부는 직사가형 상부 가로방향의 집열판하우스지지구조물(23)에 고정되고 회전부는 가번집열판하우스상부연결축(11)에 고정 체결하며,상기 하부 고정부는 10°간격으로 0°에서 190°의 범위내 나번수광다이오드(44-1)를 설치하고, 시간대별 관계는 0°는 8시에 해당하고, 10°는 8시30분, 20°는 9시, 30°는 9시30분, 40°는 10시,50°는 10시3O분, 60°는 11시, 70°는 11시30분, 80°는 12시,90°12시30분, 100°는 1시, 110°는 1시30분, 120°는 2시, 130°는 2시30분, 140°는 3시, 150°는 3시30분, 160°는 4시, 170°는 4시30분, 180°는 5시, 190°는 5시30분 해당한다.In the horizontal direction control, as shown in Fig. 9, the horizontal azimuth detector 44 has a flat shape in which the upper and lower sides are rotated independently, and the fixing part is fixed to the heat collecting plate house support structure 23 in the direct upper direction and the rotating part is temporarily It is fixed fastening to the heat collecting plate house upper connecting shaft (11), the lower fixing portion installs the number light-emitting diode (44-1) in the range of 0 ° to 190 ° at intervals of 10 °, the time-phase relationship is 0 o 10 ° is 8:30, 20 ° is 9:00, 30 ° is 9:30, 40 ° is 10, 50 ° is 10:30, 60 ° is 11, 70 ° is 11 30 minutes, 80 ° is 12, 90 ° is 12:30, 100 ° is 1:00, 110 ° is 1:30, 120 ° is 2:00, 130 ° is 2:30, 140 ° is 3:00 , 150 ° corresponds to 3:30, 160 ° corresponds to 4 hours, 170 ° corresponds to 4:30 minutes, 180 ° corresponds to 5 hours, and 190 ° corresponds to 5:30 minutes.

상부 회전부에 나번발광다이오드(44-2)는 한개만 설치되고 광센서상자(49)내의 CDS센서(50)에 의해 정지 및 운전을 반복하다가 구름이 오후 1시경에 1시간 가량 머무를 경우 가,나,다,라집열판하우스(1),(2),(3),(4)들은 1시30분에 해당하는 서쪽방위각에 위치 해야하므로 고정부 나번수광다이오드(44-1)를 감지하기 위해 회전부 나번발광다이오드(44-2)가 서쪽 방위각으로 할 수 있도록 수평방위각디씨모터(43)를 110°로 작동시켜 상기 양쪽 다이오드가 감지식별이 되면 신호가 제어기(53)의 입력부로 전송되어 중앙처리장치 연산과정을 통해 작동을 자동적으로 멈추고 30분 경과후 2시에 해당하는 120°위치에 정지 한 후 계속 정지와 운전을 반복하여, 태양에너지를 최대한 흡수하도록 한다.If only one light emitting diode 44-2 is installed in the upper rotation part and the CDS sensor 50 in the optical sensor box 49 is repeatedly stopped and operated, the cloud stays for about 1 hour at about 1 pm The heat sink house (1), (2), (3), (4) should be located at the west azimuth angle corresponding to 1:30, so that the rotating part to detect the fixed part number light-emitting diode (44-1) By operating the horizontal azimuth DC motor 43 at 110 ° so that the light emitting diode 44-2 can make the western azimuth angle, when both diodes are sensed, a signal is transmitted to the input of the controller 53 so that the central processing unit It automatically stops operation through the calculation process, stops at the 120 ° position corresponding to 2 o'clock after 30 minutes, and repeats the stop and operation to absorb the solar energy as much as possible.

〈 전력생산에 관한 자세한 설명 〉〈Detailed Description of Power Generation〉

태양의 열량은 1분동안 1㎡당 16㎉이며, 집광반사판(18)의 집광비가 22:1일 경우 1분당 열량은 352㎉이고 10분당 3520㎉이고 1시간당 21120㎉ㅇ며, 일일 6시간의 열량은 126720㎉이고 가로3.6m 세로1.9m의 면적에서 866765㎉이다. The heat of the sun is 16 kW per 1m2 for 1 minute, and the light condensing ratio of the light reflecting plate 18 is 22: 1. The calories per minute is 352 kcal per 10 minutes, 3520 kcal per 10 minutes, 21120 kcal per hour, and 6 hours of calories per day. It is 126720㎉ and 866765㎉ at an area of 3.6m wide and 1.9m long.

상기 온도는 텔루르화비스무트판(15-1)을 352℃도로 가열하여 전기를 얻을 수 있는 가능 온도이다.The temperature is a possible temperature at which the bismuth telluride plate 15-1 can be heated to 352 ° C to obtain electricity.

예에서,우주선용 열전기발전 제원에서 지름12cm,길이14cm인 열전기발전은 근적외선영역만을 열원으로하여 시간당 50w 전력을 생산하였다. 본 발명품은 기존의 근적외선 영역에서만 전력을 생산하다 보니 실제 태양의 전체 에너지중 25%밖에( 태양의 빛중 각 파장대별 비율은 자외선2.7%, 가시광선44.4%, 적외선28.4%, 근적외선23.5%이다.)활용하지 못해 전력효율이 기존 태양전지판보다 낮으므로 광대역에서 열에너지를 흡수할 수 있도록 텔루르화비스무트판(15-1)을 제조할때 가시광선과 자외선 영역에서 에너지 흡수율이 높은 이산화티타늄을 상기 표면에 2㎛ 두께로 흑색 상태로 진공증착시켜 집열면적이 52.7㎤인 우주선용 열전기발전기의 발전양이 시간당 50w인 것을 본 발명품은 4배인 200w 전력을 생산한다. 자세한 설명에서 본 열전기발전유리관(15)의 길이가 개당 185cm이고 4개로 구성되므로 개당 면적은 185cm*32cm로 592㎤이므로 우주선용 열전기발전보다 집열면적이 11배나 증가하여 전력생산도 11*200w일 경우 2200w이고 열전기발전유리관(15)이 4개일 경우 8800w이며, 이를 킬로와트로 환산하면 시간당 8.8㎾이며,일일 6시간 동안 발전할 경우 52.8㎾이다. 기존 추적식 태양전지판의 면적이 세로3m 가로4m일 경우 집열판 크기가 800mm*800mm이고 22개일 경우 일일 6시간 발전양은 24㎾이므로 본 발명품이 기존태양전지판 보다 발전양이 두배에 이른다. 열전기발전유리관(15)에서 생산된 전기는 수소발생전기분해기(57-1)을 이용하여,수소가스를 발생시켜 수소저장탱크(57)에 수소가스를 저장하고 우천 및 겨울철 일사량이 부족할 경우 수소가스를 3㎾급 가정용 연료전지스텍(57-4)으로 이송하여 전기를 생산하여 전열기(61)을 작동하여 난방열원으로 사용하고 여름철 저녁 아파트 및 빌라,빌딩에 사용될 에어콘 전원으로 사용한다. 또한 하이브리카 및 전기자동차 전원으로 사용한다.In the example, thermoelectric power generation 12cm in diameter and 14cm in length in the thermoelectric power generation for spacecraft produced 50w of power per hour using only the near infrared region as a heat source. The present invention produces power only in the existing near-infrared region, so only 25% of the total energy of the sun is actually (the ratio of each wavelength of the sun's light is 2.7% UV, 44.4% visible light, 28.4% infrared, and 23.5% near infrared). Since the power efficiency is lower than that of the existing solar panel because it is not utilized, when manufacturing bismuth telluride plate 15-1 to absorb thermal energy in a wide band, titanium dioxide having high energy absorption in visible and ultraviolet regions is 2㎛ on the surface. The present invention produces 200w of electric power four times that the generation amount of the thermoelectric generator for spacecraft having a collecting area of 52.7 cm 3 by vacuum deposition in a black state in thickness is 50w per hour. In the detailed description, the thermoelectric power glass tube 15 has a length of 185cm per piece and consists of four pieces, so the area per piece is 185cm * 32cm and 592cm. Therefore, when the heat collecting area is 11 times higher than that of spacecraft thermoelectric power generation, the power production is 11 * 200w. If 2200w and four thermoelectric power glass tube (15) is 8800w, it is 8.8kW per hour in kilowatts, and 52.8kW for 6 hours per day. If the area of the existing traceable solar panel is 3m long and 4m long, the heat collecting plate size is 800mm * 800mm, and if 22 pieces are generated for 6 hours per day, the amount of power generation is 24 ㎾ compared to the existing solar panel. The electricity produced in the thermoelectric power glass tube 15 uses hydrogen generating electrolyzer 57-1 to generate hydrogen gas, storing hydrogen gas in the hydrogen storage tank 57, and hydrogen gas when the amount of insolation in winter and winter is insufficient. It is transferred to the 3㎾ class home fuel cell stack (57-4) to produce electricity to operate the heater 61 to use as a heating heat source, and used as an air conditioner power used in apartments, villas and buildings in the summer evening. It is also used as a power source for hybrid cars and electric vehicles.

〈 온수양 및 온도에 관한설명 〉〈Description of Hot Water and Temperature〉

축열탱크(54)에서 순환펌프(56)에 의해 이송되는 에틸글리세린의 온도는 20℃로 가번집열판하우스(1)의 열전기발전유리관유입구(22-1)을 거쳐 진공상태인 열전기발전유리관(15)의 전자포집부인 텔루르화납관(15-2)으로 통과하면서 간접가열되는 온도는 식{ 2π K(352)/in(1) }에서 k는 열전도율로 텔루르화비스무트판(15-1)의 열전도율은 알루미늄 전도율에 준해 235k이고 353℃의 값은 22:1로 집광된 온도이지만 유리관을 통과하면서 열손실은 35℃로 낮아지고 초기 에틸글리세린 온도 20℃와 감한 온도는 298℃이며, in는 상기 전자포집부 텔루르화납관(8-2)의 두께의 상수값이다. 상기의 값은 {2*3.14*(235)*(298℃)/(0.76)} 6.4 * 10^5 J/S이고 ㎈로 환산하면 0.24㎈ * 5.5 * 10^5 J/S는 132000㎈이고 다시 ㎉로 환산하면 130㎉로 에틸글리세린 1ℓ를 1분 동안 130℃로 높일수 있는 열량이지만 일부 열손실을 제외하면 상기 네개의 텔루르화납관(15-2)으로 분당 6ℓ의 에틸글리세린이 순환펌프(56)에 의해 이송되므로 최종 에틸글리세린의 온도는 21.6℃ 이고 초기 에틸글리세린 온도 20℃는 최종적으로 41.6℃가된다.( 20℃+21.6℃ )The temperature of the ethyl glycerine transferred by the circulation pump 56 in the heat storage tank 54 is 20 ° C., and the thermoelectric power glass tube 15 in a vacuum state is passed through the thermoelectric power glass tube inlet 22-1 of the heat collecting plate house 1. The temperature indirectly heated while passing through the lead-tetrafluoride tube (15-2), which is the electron collecting portion of the equation (2π K (352) / in (1)), k is the thermal conductivity, and the thermal conductivity of the bismuth telluride plate 15-1 is It is 235k based on aluminum conductivity and the value of 353 ℃ is condensed at 22: 1, but the heat loss is lowered to 35 ℃ as it passes through the glass tube, and the initial ethylglycerol temperature is 20 ℃ and the subtracted temperature is 298 ℃, and in is the electron collection. It is a constant value of the thickness of the butane telluride tube 8-2. The above value is {2 * 3.14 * (235) * (298 ℃) / (0.76)} 6.4 * 10 ^ 5 J / S, and 0.24㎈ * 5.5 * 10 ^ 5 J / S is 132000㎈ The amount of heat that can increase 1 liter of ethyl glycerine to 130 ℃ for 1 minute in terms of ㎉ again, but excluding some heat loss, 6 liters of ethyl glycerine per minute into the four lead telluride tubes (15-2) circulating pump (56 The final ethylglycerin temperature is 21.6 ℃ and the initial ethylglycerol temperature 20 ℃ is finally 41.6 ℃ (20 ℃ + 21.6 ℃).

상기 가번집열판하우스(1)의 열전기발전유리관(15)의 텔루르화납관(15-2)를 거쳐 열전기발전유리관 배출구(22)를 통해 가열된 물은 나번집열판하우스(2),다번집열판하우스(3) ,라번집열판하우스(4)의 4개의 텔루르화납관(15-2)을 거치면서 약 41.6℃로 가열된 에틸글리세린은 가번집열판하우스(1)의 가열판유입구(20)를 거쳐 상기와 연결된 우측코일가열관(16-1)과 우측가열판(16)을 통과해 서로 연결관으로 연결된 좌측코일가열관(17-1)에 연결된 좌측가열판(10)을 통과하며, 가번집열판하우스(1),나번집열판하우스(2),다번집열판하우스(3),라번집열판하우스(4)의 코일가열관 및 가열판을 통과해 복사열에 의해 가열된 최종 온도는 85.6℃(20℃ + 41.6℃ + 24℃ )에 달한다. ( 한대의 집열판하우스의 코일가열관 및 가열판의 구리관의 총길이는 31m로 복사 열을 흡수해 약6℃ 에틸글리세린 온도를 상승시키므로 4대의 집열판하우스의 총 구리관의 길이가 124m일 경우 복사가열 온도는 24℃이다. ) 유량은 분당 6ℓ의 에틸글리세린이 이송되어 가열되므로 10분당 60ℓ이송되고 시간당 360ℓ이송되며, 6시간당 2160ℓ의 에틸글리세린이 85.6℃로 축열탱크(54)에 저장되는 것과 같은 효과를 나타낸다. 상기의 온수양은 30평규모 아파트 실내 겨울철 이틀 정도 난방을 할수 있는 온도이다. 상기 축열양 2160ℓ는 85.6℃ 로 기준하여 열량으로 환산하면 184896㎉이고 이를 ㎾로 환산하면 214㎾이다. 열전기발전을 통해 생산된 전력 52.8㎾보다 4배나 높음 을 알수 있다.The water heated through the thermoelectric power glass tube outlet 22 of the thermoelectric power glass tube 15 of the thermoelectric power glass tube 15 of the temporary heat collecting plate house 1 is the second heat collecting plate house 2 and the multiple heat collecting plate house 3. ), The ethyl glycerin heated to about 41.6 ° C. through the four lead telluride tubes (15-2) of the Raburn collection plate house (4) is connected to the right coil through the heating plate inlet (20) of the Gaburn collection plate house (1). Passing through the heating tube 16-1 and the right heating plate 16 through the left heating plate (10) connected to the left coil heating tube (17-1) connected to each other by connecting pipes, temporary collection plate house (1), the second collection plate The final temperature heated by the radiant heat through the coil heating tube and the heating plate of the house (2), the multiple collection plate house (3), the Rabund collection plate house (4) reaches 85.6 ° C (20 ° C + 41.6 ° C + 24 ° C). (The total length of the coil heating tube of one collector plate house and the copper tube of the heating plate is 31m, which absorbs radiant heat and raises the ethylglycerin temperature by about 6 ℃. Therefore, the total heating tube length of four collector plate houses is 124m. The flow rate is 6 liters of ethylglycerol per minute is transferred and heated, so 60 liters per 10 minutes, 360 liters per hour, and 2160 liters of ethylglycerine per 6 hours are stored in the heat storage tank 54 at 85.6 ° C. Indicates. The amount of hot water above is the temperature at which the apartment can be heated for two days in winter in the 30-pyeong apartment. The heat storage amount of 2160 L is 184896 kW when converted into calories based on 85.6 ° C. and 214 kW when converted into heat. It can be seen that it is four times higher than the power generated by thermoelectric power 52.8㎾.

본 발명으로 인한 효과는 우리나라 년간 원유 수입금액 500억 달러중 가정, 상업부문과 공공부문에서 사용하는 원유는 전체 원유양중 24.15%에 해당하고 금액으로 환산하면 120억달러이고 본 발명품이 10년간 단독주택은 물론 아파트 및 빌라,빌딩,연립주택등에 800만대 보급이 되어 가정,상업 및 공공부문에서 80% 원유수입 대체효과가 있을 경우 금액으로 환산하면 106억 달러이고 원화로 환산하면 10조6천억에 이르고 10년내 800만대가 보급데는 과정중 누적 원유수입 대체금액은 434억달러이고 본 발명품의 사용수명을 20년으로 볼 경우 원유 절감금액은 960억 달러이며, 총 원유절감효과 금액은 434억달러 * 960억달러 = 1394억달러에 이르고 원화로 환산하면 139조4천억원이다.The effect of the present invention is that the oil used in the home, commercial and public sectors is equivalent to 24.15% of the total oil quantity, which is equivalent to $ 12 billion of the total oil imports. Of course, 8 million units will be supplied to apartments, villas, buildings, and townhouses, and if there is an 80% oil import replacement effect in the home, commercial, and public sectors, it will be $ 10.6 billion in dollars, and 10.6 trillion in dollars. During the process of distributing 8 million units within the year, the cumulative crude oil import replacement amount was $ 44.3 billion, and the life expectancy of the present invention in 20 years was $ 96 billion, and the total crude oil savings amount was $ 44.3 billion * $ 96 billion = 1394 It is worth 139 trillion won (KRW billion).

이산화탄소 배출감소효과는 한해 가정,상업 및 공공부문에서 38,360천톤의 이산화탄소를 배출하므로 2013년부터 지구온난화 배출가스 감축의무가 있을 경우 38,360천톤의 이산화탄소 거래제에 의한 금액은(현재 1톤당 원화로 만원선에 거래되고 있지만 2013년부터는 1톤당 13만원 거래될 경우 가정)4조9천8백억원의 가치가 있다.The CO2 emission reduction effect is equivalent to 38,360 thousand tons of CO2 emissions from the household, commercial and public sectors annually, so if there is an obligation to reduce global warming emissions from 2013, the amount of 38,360 thousand tons of CO2 trading system (currently in KRW 10,000 per ton) Although it is being traded, it is valued at W4.98tr from 2013, if W130,000 / ton is traded.

전력부문에서, 본 발명품으로 한대당 일일 52.8㎾의 전력을 생산한다면 800만대 보급시 총 발전양은 4억2천24십만㎾이므로 백만㎾ 원전발전소 420개와 같은 발전양으로 잉여전력은 개성공단등 남북공동산업단지등에 1차적으로 전력을 무상으로 공급할 수 있는 양이다. 민간부문에서, 현재 시행하고 있는 발전차액보조금 제도로 ㎾당 716원에 보조금을 지원하고 있는데 본 발명으로 생산된 하루 전력량 52.8㎾를 금액으로 환산하면 52.8 * 716원=37,804원이고 일년일 경우 11,341,440원으로 한대당 5백만원에 구입할 경우 6개월만에 투자비를 회수할 수 있고 일일 생산된 온수양 2160ℓ는 기름보일러로 가열할 경우 21ℓ의 연료가 소모되고 금액으로 환산하면 21ℓ * 870원= 18,270원에 해당하는 원유 및 금액을 절약할 수 있다. 또한 열전기발전을 통해 생산된 전기로 물을 전기분해하여 수소를 얻어 연료전지를 통해 수소자동차 및 전기자동차에 대한 동력원과 에어콘등 가정용 전자 및 전기 전력으로 사용한다.In the electric power sector, if the present invention produces 52.8 MW of electricity per day, the total generation amount is 8,240,000 MW when supplying 8 million units, so surplus power is the same as the 420 million MW nuclear power plant. It is the amount that can supply electric power to the lamp for free. In the private sector, the subsidies are currently being implemented. The subsidies are subsidized at 716 won per 있는데, which translates into 52.8 * 716 won = 37,804 won per day when the amount of electricity generated by the present invention is converted to 52.8 금액 per day, and 11,341,440 won a year. If you purchase it for 5 million won per unit, you can recover the investment cost in 6 months, and 2160ℓ of hot water produced daily consumes 21ℓ of fuel when heated by oil boiler and converts it into 21ℓ * 870 won = 18,270 won Save crude oil and money. In addition, water is electrolyzed using electricity produced through thermoelectric power generation to obtain hydrogen, which is used as a power source for hydrogen vehicles and electric vehicles and household electronics and electric power such as air conditioners through fuel cells.

15년간 1억대를 수출할 경우 수출금액은 5백조억원의 외화를 획득할 수 있고 배출되는 세계의 이산화탄소 479,500천톤를 절감할 수 있고 일일 52억8천만㎾ 전력을 생산할 수 있으므로 최근 60달러까지 유가가 상승하고 있고 또한 핵발전소 연료인 옐로우캐이크도 가격이 3배이상 급상승하여 향후 전세계적으로 전력 수급 문제에 직면하고 있는데 이를 해소할수 있는 대안책이 될수 있을 것이다.(상기의 전력양은 5279개의 핵발전소 전력양과 동일하다.)If 100 million units are exported for 15 years, the export amount will be able to obtain 50 trillion won in foreign currency, save 479,500 thousand tons of carbon dioxide emitted, and produce 52.28 billion yuan of electricity per day, so that the oil price has risen to $ 60. In addition, the price of nuclear fuel, Yellow Lake, has soared more than three times, and is facing power supply and demand in the future, which may be an alternative to solve this problem. same.)

도1은 평면도이다.1 is a plan view.

도2는 정면도이다.2 is a front view.

도3은 우측면도이다.3 is a right side view.

도4는 체인 및 풀리 작동상세도이다.4 is a detailed view of the chain and pulley operation.

도5는 도1의 (1)에 대한 정면도이다.Fig. 5 is a front view of Fig. 1 (1).

도6은 도1의 (1)에 대한 평면투시도이다.Fig. 6 is a plan perspective view of Fig. 1 (1).

도7은 도2의 (15)에 대한 상세도이다.Fig. 7 is a detailed view of Fig. 2 (15).

도8은 수직고도각검출기 상세도이다.8 is a detailed elevation elevation detector.

도9는은 수평방위각검출기 상세도이다.9 is a detailed view of a horizontal azimuth detector.

도10은 광센서상자 상세도이다.10 is a detailed view of the optical sensor box.

도11는 수직고도각 광센서 정지시 실시도이다.11 is an illustration when the vertical elevation sensor stops.

도12는 수직고도각 광센서 작동시 실시도이다.12 is a diagram illustrating the operation of the vertical elevation sensor.

도13은 수평방위각 광센서 정지시 실시도이다.Fig. 13 is an illustration when the horizontal azimuth optical sensor is stopped.

도14는 수평방위각 광센서 작동시 실시도이다.14 is a view showing the operation of the horizontal azimuth optical sensor.

도15는 배관상세도이다.15 is a pipe detail view.

* 도면의 주요 부분에 대한 부호설명 ** Explanation of Signs of Major Parts of Drawings *

1. 가번집열판하우스 2. 나번집열판하우스 3. 다번집열판하우스1. Gabun Hot Plate House 2. Nabun Hot Plate House 3. Dabun Hot Plate House

4. 라번집열판하우스 5.집열판하우스연결판 6.집열판하우스연결판구멍4. Laban collector plate house 5. Collector plate house connecting plate 6. Collector plate house connecting plate hole

7.가번집열판하우스하부연결축 8.나번집열판하우스하부연결축7.Gabon hot plate house bottom connecting shaft

9.다번집열판하우스하부연결축 10.라번집열판하우스하부연결축9.Hot collection plate house bottom connection shaft 10.Raburn collection plate house bottom connection shaft

11. 가번집열판하우스상부연결축 11-1. 나번집열판하우스상부연결축11. Interconnecting shaft of upper row house 11-1. Naburne hot plate house upper connecting shaft

12. 다번집열판하우스상부연결축 12-1. 라번집열판하우스상부연결축12. Multi-coupling plate house upper connecting shaft 12-1. Laban heat sink house upper connection shaft

13.하부연결축지지베어링 14.상부연결축지지베어링13. Lower connection shaft support bearing 14. Upper connection shaft support bearing

15.열전기발전유리관 15-1. 텔루르화비스무트판 15-2.텔루르화납관15. Thermoelectric glass tube 15-1. Tellurium bismuth board 15-2.

15-3.전극판 15-4.전선 15-5.굴절오일이송관 15-6.집열관오일이송관15-3 Electrode plate 15-4 Wire 15-5 Refractive oil transfer pipe 15-6 Collector oil transfer pipe

16.우측가열판 16-1.우측코일가열관 17.좌측가열판 17-1.좌측코일가열관 17-2.코일가열관오일이송관 17-3.가열판오일이송관16 Right heating plate 16-1 Right coil heating tube 17 Left heating plate 17-1 Left coil heating tube 17-2 Coil heating tube Oil transfer tube 17-3 Heating plate oil transfer tube

18.집광반사판 19.투명강화유리판18. Condensing Reflector 19. Transparent Tempered Glass

20.가열판유입구 21.가열판배출구 22.열전기발전유리관배출구20. Heating plate inlet 21. Heating plate outlet 22. Thermoelectric power generation glass tube outlet

22-1.열전기발전유리관유입구 23.집열판하우스지지구조물22-1.Thermoelectric power generation glass tube inlet 23.Housing plate house supporting structure

23-1.집열판하우스수직지지구조물 24.우측집열판하우스지지구조물연결축23-1. Collector plate house vertical support structure 24. Right collector plate house support structure

25.좌측집열판하우스지지구조물연결축 26.우측벽부착연결판25. Left heat collecting plate house supporting structure connecting shaft 26. Right wall connecting plate

26-1.우측벽부착연결판구멍 26-2. 우측벽연결축지지대 27.좌측벽부착연결판 27-1.좌측벽부착연결판구멍 27-2. 좌측벽연결축지지대26-1.Right plate mounting plate hole 26-2. Right wall connecting shaft support 27. Left wall connecting plate 27-1. Left wall connecting plate hole 27-2. Left wall connecting shaft support

28.우측수직벽부착연결지지대 29.좌측수직벽부착연결지지대28. Right vertical wall connection support 29. Left vertical wall connection support

30.우측수직벽부착연결판 31.우측수직벽부착연결판구멍 32.좌측수직벽부착연결판 32-1.좌측수직벽부착연결판구멍 33.수직디씨모터레일지지대 34.수직디씨모터부착수평지지대 35.수직디씨모터연결축 36.수직모터이송레일 37.수직고도각디씨모터30. Right vertical wall connection plate 31. Right vertical wall connection plate 32. Left vertical wall connection plate 32-1. Left vertical wall connection plate 33. Vertical DC motor rail support 34. Vertical DC motor mounting horizontal Support 35. Vertical DC motor connection shaft 36. Vertical motor feed rail 37. Vertical elevation angle DC motor

37-1.수직고도각검출기 37-2.수직부모터덮개 37-3. 수직디씨모터체결판 37-4.가번수광다이오드 37-5.가번발광다이오드Vertical Height Angle Detector 37-2.Vertical Motor Cover 37-3. Vertical DC Motor Fastener 37-4 Gabon Light Emitting Diode 37-5 Gabon Light Emitting Diode

38.수직고도각이송스크류 39.수직고도각이송스크류굴절체결판38. Vertical elevation feed screw 39. Vertical elevation feed screw refractive plate

40. 스러스트베어링 41.연결축 42.연결지지대 42-1."ㄷ"자형체결판40. Thrust bearing 41. Connecting shaft 42. Connecting support 42-1. "B" shaped fastening plate

42-3. "ㄷ"자형연결축42-3. "ㄷ" shaped connecting shaft

43.수평방위각디씨모터43. Horizontal bearing angle motor

44.수평방위각검출기 44-1.나번수광다이오드 44-2.나번발광다이오드44.Horizontal Azimuth Detector 44-1.Nav light-emitting diode

45.수평방위각디씨모터덮개 46.수평방위각모터체결판45. Horizontal bearing angle motor cover 46. Horizontal bearing angle motor fastening plate

47.수평방위각제어체인 48.가번수평방위각상부체인풀리 48-1.가번수평방위각하부체인풀리47.Horizontal angular control chain 48.Gavern horizontal angular upper chain pulley 48-1.Gavern horizontal angular lower chain pulley

48-2.나번수평방위각하부체인풀리 48-3. 나번수평방위각상부체인풀리Nahor horizontal azimuth lower chain pulley 48-3. Naban Horizontal Orientation Upper Chain Pulley

48-4.다번수평방위각하부체인풀리 48-5.다번수평방위각상부체인풀리48-4.Multiple Horizontal Orthogonal Lower Chain Pulley 48-5.Multiple Horizontal Orthogonal Lower Chain Pulley

48-6.라번수평방위각체인풀리 49.광센서상자 50.CDS센서Laburne horizontal azimuth chain pulley 49.Light sensor box 50.CDS sensor

51.광센서상자구멍 52.광센서상자연결판 53.제어기 54.축열탱크51.Light sensor box hole 52.Light sensor box connection plate 53.Controller 54.Regenerator tank

54-1.열방출교환기배출구 54-2.열방출교환기유입구 55.인버터Heat dissipation exchanger outlet 54-2 Heat dissipation exchanger inlet 55 Inverter

56.순환펌프 57.수소저장탱크 57-1. 수소발생전기분해기56. Circulation pump 57. Hydrogen storage tank 57-1. Hydrogen Generator

57-2.수소가스누출자동감지기 57-3.연료전지스텍 57-4. 수소이송자동개폐기 57-5.수소이송관 58.압력조절탱크 59.열방출교환기Hydrogen Gas Leakage Detector 57-3.Fuel Cell Stack 57-4. Hydrogen transfer automatic switch 57-5. Hydrogen transfer pipe 58. Pressure regulating tank 59. Heat exchanger

60.실내온도조절기 61.전열기 62.온도계60. Indoor thermostat 61. Heater 62. Thermometer

Claims (6)

일사조건이 양호한 아파트 발코니 및 외벽 좁은 공간의 수직벽에 우측벽부착연결판(26)과 좌측벽부착연결판(27)에 볼트로 체결하도록 알루미늄 프로파일로 구성된 우측벽연결축지지대(26-2)와 좌측벽연결축지지대(27-2)가 결합되고 스텐인레스 볼트로 벽에 체결하고 좌,우측벽연결지지대(27-2),(26-2)의 상부면에 알루미늄 프로파일로 구성된 우측수직벽부착연결지지대(28)와 좌측수직벽부착연결지지대(29)등을 볼트로 체결하며, 또한 상부 벽면에 추적식 구조물을 고정 시키기 위해 우측수직부벽부착연결판(30)과 좌측수직부벽부착연결판(32)등이 좌.우측수직벽부착연결지지대(29),(28)볼트로 체결되고 좌,우수직부벽부착연결판(32),(30) 끝부분이 벽에 고정되도록 양쪽 부착연결판구멍등에 스텐레스볼트로 고정 시키고 상하로 작동되는 직사각형태의 알루미늄 프로파일로 구성된 집열판하우스지지구조물(23)의 중앙부에 변형을 방지하기 위해 집열판하우스수직지지구조물(23-1)이 고정 체결되며, 상하로 작동되도록 수직디씨모터레일지지대(33)와 수직디씨모터연결축(35)은 서로 체결되어 수직모터이송레일(36)이 위치하여 상부면에 감속기가 체결된 수직고도각디씨모터(37)는 수직디씨모터체결판(37-3)에 체결되고 감속기축에 왕복이송이 가능한 수직고도각이송스크류(38)가 체결되어 끝면은 연결축(41)에 의해 집열판하우스지지구조물(23)에 연결되어 가번집열판하우스(1),나번집열판하우스(2),다번집열판하우스(3),라번집열판하우스(4)등이 세로방향으로 설치되어 가,나,다,라번상부연결축(11),(11-1),(12),(13)들과 가,나,다,라하부연결축(7),(8),(9),(10)등은 상부연결축지지베어링(14-1)와 하부연결축지지베어링(15)등에 체결되어 회전이 되고 집열판하우스지지구조물(23) 상부에 수평방위각모터체결판(46)이 체결되어 상부에 수평방위각디씨모터(43)를 고정시키고 감속기축에 연결된 동서로 회전되는 수평방위각제어체인(47)으로 기어 형상의 가번수평방위각상부체인풀리(48)에 연결하고 같은 축에 고정된 가번수평방위각하부체인풀리(48-1)와 나번수평방위각하부체인풀리(48-2)는 상기체인으로 연결하고 같은 축에 고정된 나번수평방위각상부체인풀리(48-3)는 다번수평방위각상부체인풀리(48-5)와 상기 체인으로 연결되고 같은 축에 고정된 다번수평방위각하부체인풀리(48-4)는 라번수평방위각체인풀리(48-6)와 상기 체인으로 연결되고 상기 가번집열판하우스(1)의 세로방향 중앙부에 부착된 광센서상자(49)내의 다섯개의 CDS센서(50)에서 발생 변화되는 저항값이 제어기(53)의 입력부로 전송되어 중앙연산처리장치의 연산결과로 수직고도각디씨모터(37)와 수평방위각디씨모터(43)에 전력을 인가 및 단락을 하여 방위각 및 고도각으로 이동하는 태양위치를 2축으로 자동추적하는 것을 특징으로 하는 아파트벽 부착 2축 자동 태양추적 열전기발전설비.Right wall connecting shaft support (26-2) composed of aluminum profile to bolt to right wall connecting plate 26 and left wall connecting plate 27 to vertical wall in narrow space of balcony and exterior wall of apartment with good solar condition And left wall connecting shaft support (27-2) are combined and fastened to the wall with stainless bolts, and the right vertical wall mounting consisting of aluminum profiles on the upper surfaces of the left and right wall connecting support (27-2), (26-2) The connection support 28 and the left vertical wall attachment support 29 are bolted together, and the right vertical wall attachment connector 30 and the left vertical wall attachment connector for fixing the tracked structure on the upper wall. 32) The left and right vertical wall attachment connectors (29) and (28) are fastened with bolts, and the left and right vertical wall attachment connectors (32) and (30) ends are fixed to the wall. Rectangular aluminum fixed to the back with stainless bolts and operated up and down The heat collecting plate house vertical support structure 23-1 is fixedly fastened to prevent deformation in the center portion of the heat collecting plate house support structure 23 composed of profiles, and the vertical DC motor rail support 33 and the vertical DC motor are operated up and down. The connecting shaft 35 is fastened to each other so that the vertical motor transfer rail 36 is positioned, and the vertical elevation angle motor 37 in which the reducer is fastened to the upper surface is fastened to the vertical DC motor fastening plate 37-3 and the reducer shaft Vertical high-angle feed screw (38) capable of reciprocating transfer to the end surface is connected to the heat collecting plate house support structure (23) by the connecting shaft (41), the heat collecting plate house (1), the second heat collecting plate house (2), multiple times Collector plate house (3), Raburn collector plate house (4), etc. are installed in the longitudinal direction, b, c, Raburn upper connecting shaft (11), (11-1), (12), (13) (B) The lower connection shafts (7), (8), (9), and (10) are fastened to the upper connection shaft support bearing (14-1) and the lower connection shaft support bearing (15). The horizontal azimuth motor fastening plate 46 is fastened to the top of the heat collecting plate house supporting structure 23 to fix the horizontal azimuth angle DC motor 43 to the upper part, and to rotate east and west connected to the reduction gear shaft. Connected to the gear-shaped Gabor horizontal biangular upper chain pulley 48, and Gabor horizontal biangular lower chain pulley 48-1 and Nabeum horizontal biangular lower chain pulley 48-2 fixed to the same shaft are connected to the above chain. The same horizontally angular upper chain pulley (48-3) fixed to the same axis is connected to the multiple horizontally angular upper chain pulley (48-5) and the same horizontally angular lower chain pulley (48-4) Is a resistance generated by five CDS sensors 50 in the optical sensor box 49 connected to the Raburn horizontal azimuth chain pulley 48-6 and attached to the central part of the longitudinal heat collecting plate house 1. Value to the input of the controller 53. It transmits and short-circuits the vertical altitude angle DC motor 37 and the horizontal azimuth angle DC motor 43 as a calculation result of the central processing unit, and automatically tracks the sun position moving in the azimuth and altitude angles to two axes. A two-axis automatic solar tracking thermoelectric power generation facility with an apartment wall. 청구1항에 있어, 온수를 생산하는 가번집열판하우스(1),나번집열판하우스(2),다번집열판하우스(3),라번집열판하우스(4)들은 반원형 기둥형태로 각각 상부면에 투명강화유리판(19)가 설치되고 내부 중앙부에 반사집광판(18)이 고정되고 중앙부에 열전기발전유리관(15)이 위치하고 좌우측에 우측코일가열관(16-1)에 연결된 우측가열판(16) 고정되어 좌측코일가열관(17-1)과 연결된 좌측가열판(17)에 의해 2160ℓ온수를 생산하여 30평규모의 아파트 실내를 난방하는 아파트벽 부착 2축 자동 태양추적 열전기발전설비.According to claim 1, Gabon heat collecting plate house (1), Naban collecting plate house (2), Daban collecting plate house (3), Raban collecting plate house (4) for producing hot water, each in the form of a semi-circular column shaped transparent tempered glass plate ( 19) is installed, the reflecting light collecting plate 18 is fixed to the inner central part, the thermoelectric power generation glass tube 15 is located at the center and the right heating plate 16 connected to the right coil heating tube 16-1 on the left and right sides is fixed to the left coil heating tube 2-axis automatic solar tracking thermoelectric power generation facility with apartment wall to produce 2160ℓ hot water by heating the left heating plate (17) connected to (17-1) to heat the 30-square-meter apartment interior. 청구2항에 있어, 전기를 생산하는 열전기발전유리관(15)의 진공 상태인 내부에 반도체 성질을 가진 이종금속간의 결합으로 텔루화비스무트판(15-1)에 352℃로 가열되어 전자가 방출하여 텔루르화납관(15-2)에 포집되면서 일일 52.8㎾ 전력을 생산하는 아파트벽 부착 2축 자동 태양추적 열전기발전설비.The method according to claim 2, wherein the bismuth telluride plate 15-1 is heated to 352 ° C. by dissociation between dissimilar metals having semiconductor properties in the vacuum state of the thermoelectric power generating glass tube 15 for producing electricity, thereby emitting electrons. A two-axis automatic solar tracking thermoelectric power generation facility with an apartment wall that is collected in a lead teller tube (15-2) and produces 52.8 kW of power per day. 청구3항에 있어, 생산된 전력을 이용해 겨울철 및 기상조건의 악화로 난방온수 및 전기와 같은 사용될 부족분의 전기 에너지를 보충하기 위해 수소발생전기분해기(57-1)로 전송하여 수소를 발생시켜 수소저장탱크(57)에 저장하고 상기 수소를 연료전지스텍(57-4)에 이송하여 전기를 생산하는 아파트벽 부착 2축 자동 태양추적 열전기발전설비.According to claim 3, the generated power is transferred to a hydrogen generating electrolyzer (57-1) to supplement the shortage of electric energy to be used such as heating hot water and electricity due to deterioration of winter and weather conditions to generate hydrogen to produce hydrogen. A two-wall automatic solar tracking thermoelectric generator with an apartment wall for storing electricity in a storage tank (57) and transferring the hydrogen to a fuel cell stack (57-4) to produce electricity. 청구1항에 있어, 구름이 있을 경우 오작동을 방지하기위해 제어기(53)에 전선으로 연결된 수직고도각검출기(37-1)와 수평방위각검출기(44)를 이용해 태양위치를 정밀 추적하는 아파트벽 부착 2축 자동 태양추적 열전기발전설비.The method according to claim 1, wherein an apartment wall is attached to precisely track the position of the sun using a vertical altitude angle detector 37-1 and a horizontal azimuth angle detector 44 connected by wires to the controller 53 to prevent a malfunction in the presence of clouds. 2-axis automatic solar tracking thermoelectric generator. 청구3항에 있어, 과도한 열상승으로 높은 저항의 발생으로 전기생산 효율이 떨어지므로 저항을 낮추기 위한것과 온수를 얻기위해 축열탱크(54)내 물속 잠긴 열방출교환기(59)가 설치되는 아파트벽 부착 2축 자동태양추적 열전기발전설비.According to claim 3, since the production of high resistance due to excessive heat rise decreases the efficiency of electricity production, the wall of the apartment is provided with a submerged heat exchanger (59) in the heat storage tank (54) to lower the resistance and to obtain hot water. 2-axis automatic solar tracking thermoelectric generator.
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Cited By (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO2008075858A1 (en) * 2006-12-20 2008-06-26 Insig Seong Semi-cylindrical solar collecting apparatus for solar boiler
KR100964470B1 (en) * 2008-03-17 2010-06-16 (주)시에스넷 Heating and hot water supply system using sunlight tracing type evacuated tube solar collector for veranda parapet
KR101041102B1 (en) * 2009-06-30 2011-06-13 (주)티엠테크 Solar collecting apparatus
CN102566587A (en) * 2010-12-09 2012-07-11 西安中科麦特电子技术设备有限公司 Photovoltaic group tracking device
CN105877067A (en) * 2016-04-01 2016-08-24 李占印 Portable solar temperature-controlled medical box
CN108073190A (en) * 2017-12-31 2018-05-25 郑州市第建筑工程集团有限公司 Skyscraper wall solar cell supporting plate link-type regulating device outside window

Cited By (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO2008075858A1 (en) * 2006-12-20 2008-06-26 Insig Seong Semi-cylindrical solar collecting apparatus for solar boiler
US8210163B2 (en) 2006-12-20 2012-07-03 Insig Seong Semi-cylindrical solar collecting apparatus for solar boiler
KR100964470B1 (en) * 2008-03-17 2010-06-16 (주)시에스넷 Heating and hot water supply system using sunlight tracing type evacuated tube solar collector for veranda parapet
KR101041102B1 (en) * 2009-06-30 2011-06-13 (주)티엠테크 Solar collecting apparatus
CN102566587A (en) * 2010-12-09 2012-07-11 西安中科麦特电子技术设备有限公司 Photovoltaic group tracking device
CN105877067A (en) * 2016-04-01 2016-08-24 李占印 Portable solar temperature-controlled medical box
CN108073190A (en) * 2017-12-31 2018-05-25 郑州市第建筑工程集团有限公司 Skyscraper wall solar cell supporting plate link-type regulating device outside window

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