TR2021009069A2

TR2021009069A2 - ENERGY PRODUCTION SYSTEM

Info

Publication number: TR2021009069A2
Application number: TR2021/009069
Authority: TR
Inventors: Ari Bayram
Original assignee: Ari Bayram
Filing date: 2021-06-02
Publication date: 2022-12-21

Abstract

Buluş, enerji kaynağı olarak güneş, atmosfer havası, toprak altı ve deniz suyu içeren bir elektrik enerji üretim sistemi ile ilgilidir. Buluş, jeofizik, meteoroloji, deniz ve termodinamik bilimleri ile ilgilidir. Buluşta kullanılan sistem termodinamik biliminde anlatılan ısı makinasına örnek verilebilir.The invention relates to an electrical energy production system containing the sun, atmospheric air, subsoil and sea water as energy sources. The invention relates to geophysics, meteorology, marine and thermodynamic sciences. The system used in the invention can be given as an example of the heat engine described in thermodynamics.

Description

TARIFNAME ARI ENERJI ÜRETIM SISTEMI Teknik Alan Bulus, enerji kaynagi olarak günes, atmosfer havasi, toprak alti ve deniz suyu içeren bir elektrik enerji üretim sistemi ile ilgilidir. Bulus, jeofizik, meteoroloji, deniz ve termodinamik bilimleri ile ilgilidir. Bulusta kullanilan sistem termodinamik biliminde anlatilan isi makinasina örnek verilebilir. Önceki Teknik Teknikteki isitma sogutma sistemleri, isi pompasi kullanilarak bir ortamda var olan isi enerjisini elektrik enerjisini tüketerek yapilan is karsiliginda bir baska ortama tasinmaktadir. Buna göre isi pompalari hem isitma hem de sogutma yapilmasinda kullanilir ve günümüzde hemen hemen tüm sogutma sistemleri isi pompasi teknigine dayanmaktadir. Dünyada gelismis ülkelerde çok yaygin olarak kullanilmaktadir. Bu sistemle ~%75 isi temin edilir. Geriye kalan ~%25 ile elektrik enerjisi kullanilir. Isitma ve sogutma saglanir. Dünyamizin merkezi ~6000°C"dir. Dünyanin merkezinden yer yüzüne dogru bu sicaklik, Termodinamiginin 2. Kanun geregince iletilmektedir. Dünyanin yapisina bagli olarak. Muhtelif sicakliklara da yeryüzüne gelmektedir. Bazen termal sularda oldugu gibi +40°C veya +130°C bazen ise +13°C"dir. Bazi bölgelerde çok iyi iletken olur bazilari ise kötü iletken olur. Sonuçta yeryüzüne belli sicaklikta gelir ve bu isi akimi düzenlidir. Diger taraftan yeryüzünde günesin etkisiyle mevsimler, gece ve gündüzlere bagli olarak sicaklikta farkliliklar olusmaktadir. Dis kabukta sicaklik belli bir derinlige kadar etkilemektedir. Yüzeydeki bu degisimler ile dünyanin merkezinden ayni dogrultuda gelen sicakliklarin kesistigi noktalarda sicaklik bölgeye göre sabit kalmaktadir. Bahsedilen bu sabit kodu esas olarak bulusumuzda uygulanmaktadir. Teknikte enerji üretim sistemi ile ilgili çesitli gelistirmeler yapilmistir. Teknigin bilinen durumunda yer alan U88276383B2 sayili patent dokümaninda, bir elektrik jeneratörünü sürmek için veya baska uygun amaçlar için kullanilabilen bir türbini sürmek için sogutucu akiskanin kullanildigi kapali bir devreden bahsedilmektedir. Bahsedilen dokümanda günes, atmosfer havasi, toprak alti ve deniz suyu olarak dört ayri enerji kaynaginin kullanimina iliskin bilgi yer almamaktadir. Teknikte var olan gelistirmeler sonucunda var olan elektrik üretim sistemleri kullandiklari fosil yakitlar sebebi ile hava kirliligine neden olmaktadir. Bu nedenle bulus konusu enerji üretim sistemin gelistirilmesi ihtiyaci duyulmustur. Bulusun Amaci Bu bulusun amaci, fosil yakit yerine hava kullanarak dogaya zarar vermeyen bir enerji üretim sisteminin gerçeklestirilmesidir. Bu bulusun bir baska amaci, benzin, mazot ve LPG gibi yakitlarin egzozundan çikan CO, C02 ve NOx,lCI, kükürt oksitlerin, kursun bilesiklerinin, benzin ve mazot buharlarinin meydana getirdigi zehirlenmelerin ve kanserojen etkilerinin ortadan kaldirildigi bir enerji üretim sisteminin gerçeklestirilmesidir. Bu bulusun baska amaci, elektrik üretirken zehirli gazlar çikarmayan bir elektrik üretim sistemi ile temiz bir dünya yaratmaktir. Bulusun Ayrintili Açiklamasi Bu bulusun amacina ulasmak için gerçeklestirilen enerji üretim sistemi ekli sekillerde gösterilmistir. Bu sekiller; Sekil 1: Enerji üretim sisteminin sematik görünümüdür. Sekil 2: Enerji üretim sisteminin günes enerji akis semasinin kisaltilmis diyagram görünümüdür. Sekil 3: Enerji üretim sisteminin toprak enerji akis semasinin kisaltilmis diyagram görünümüdür. Sekil 4a: Enerji üretim sisteminin toprak alti serpantin semasinin görünümüdür. Sekil 4b: Enerji üretim sisteminin toprak alti serpantin semasinin yer altindaki kesit görünümüdür. Sekil 5: Enerji üretim sisteminin düz yüzeyli günes kolektör semasinin toprak üstü görünümüdür. Sekil 6: Enerji üretim sisteminin düz yüzeyli günes kolektör semasinin yandan görünümüdür. Sekil 7: Enerji üretim sisteminin düz yüzeyli günes kolektör semasinin kesit görünümüdür. Sekillerde yer alan parçalar tek tek numaralandirilmis olup, bu numaralarin karsiliklari asagida verilmistir. 1. Kompresör 2. Isiticil 3. Isitici 11 4. Günes kolektörü . Türbin 6. Altematör 7. Blower Serpantin Basinçli hava tüpü . Egzoz Çikisi Hava filtresi Cam örtü Emici plaka Hava akis kanali Yalitim Akim frekans degistirici Transmitter Elektrik motoru Bulus bir enerji üretim sistemi olup; Sistem içerisinde yer alan kompresör (l ), Kompresör (1) ile baglantili isitici I (2), Kompresör (1) ile baglantili isitici II (3), Türbin (5) ile baglantili altematör (6), Blower (7) ile baglantili serpantin (8), Türbin (5) ile baglantili basinçli hava tüpü (10), Türbin (5) ile baglantili egzoz çikisi (11), Pompa (9) ile baglantili isi degistirici (12), - Kompresör (1) ile baglantili hava filtresi (13), - Isitici l (2) ile günes kolektörü (4), kompresör (1) ile isitici l (2), kompresör (1) ile günes kolektörü (4), isitici l (2) ile türbin (5), blower (7) ile serpantin (8), hava filtresi (13) ile kompresör (1), serpantin (8) ile kompresör (1) isitici II (3) ile türbin (5) ve basinçli hava tüpü (10) ile türbin (5) arasinda konumlandirilmis valf (14), parçalarini içermektedir. Bulus konusu elektrik sistemi ile sadece elektrik üretilir. Bulus konusu sitem dört adet enerji kaynagi içerrnektedir. Bunlar, günes, hava, toprak, deniz veya göl Bulus konusu sistemde yer alan, günes enerji kaynaginda sicak su elde etmede kullandigimiz havali günes kolektörleridir (4). Sekil 5 "te nasil dizildigi ve Sekil 7"de kesiti gösterilmistir. Günes kolektörü (4), cam örtü (15), emici plaka (16), kanat (17'), kava akis kesiti (18) ve yalitim (19) bölümlerinden olusmaktadir. Günesten gelen isinlar kisa dalga boyuna sahiptir. Günes isinlari kolektör cam örtüsünden (15) (tek cam veya çift cam) geçer ve emici plaka (16) tarafindan emilerek isiya çevrilir. Emici plaka (16) isinir. Sicakligi düsük oldugu için radyasyonla yaydigi isin büyük dalga boyundadir. Bu isinlar örtü malzemesi camdan geçemez, böylece emici plaka (16) isinir ve sicakligi artar. Emici plakanin (16) altindan geçen hava bu sayede isinir. Kompresör (1) ile hava dolastirilarak sirkülasyon saglanmaktadir. Sicak su veya kurutma vb. amaçlarla kullanilmaktadir. Isinan hava yalitim (19) tabakasi ile disariya çikmasi engellenir. Havali günes kolektörlerde (4) yüzeyi arttirmak için kanatlar (17) kullanilmaktadir. Bütün kolektörler (4) güneye bakmakta ve egimli sekilde konumlandirilmaktadir. Asagidan soguk hava girer yukaridan sicak hava çikar. Bu sicak hava toplanir türbine (5) gider. Bulus konusu sistemde, toprak altindan alinan soguk hava kompresör (1) yardimiyla sikistirilir. Sikistirilan hava, fan (21) yardimi ile havali isitici I (2) ve daha sonra günes kolektörü (4) ~60°C"e kadar isitilir. Isitilan hava, türbine (5) gider. Türbin (5) içerisindeki hava ile dönerek is yapar. Türbine (5) bagli alternatör (6) ile elektrik üretilir. Türbinden (5) çikan hava tekrar yeraltina girer ve daha da sogur. Havayi sogutmak için yer altinda serpantin (8) bulunmaktadir. Soguyan hava kompresör (1) tarafindan tekrar emilir. Serpantin (8) tercihen kanatli polietilen boru olabilir. Sicakligin sabit kaldigi noktayi izolasyon ile toprak yüzeyine tasinmaktadir. Bu sayede büyük bir masraftan da kurtulmus olmaktayiz, zira sabit sicakliga kadar kazilmayacak ve izolasyon duvari örülmeyecektir. Gücümüze yetecek kadar alani daha genis tutacagiz. Izolasyon ile yanlardaki isi akisini sifirlanacaktir. Ikinci bir yöntem de olarak deneylerle ölçülerek senelik sabit bir derinlikte sabit sicaklik bulmaktir. Bu derinlige kadar belirlenen alan yanlardan izole edilip alan üzerinde izolasyon yapilir. Havalar sogudugu zaman toprak alti sicaktir. Bulus konusu sistemde, bu sicaklik bir blower (7) yardimiyla toprak altindaki serpantinden (8) alinir isitici ll°den (3) geçirilir. Kompresör (l) yardimiyla dis ortamdan alinan soguk hava sikistirilir isitici IPde (3) isinan hava türbine (5) gider, genisler alternatörü (6) çevir ve elektrik üretir. Günes olmadigi saatlerde kompresör (l) çalismaya devam eder. Günes kolektörü (4) (Günes kolektör gruplari) devreden çikar. Yalniz isitici I (2) devrede kalir, basinçli havayi isitir. Isinan basinçli hava türbine (5) gönderilir. Türbindeki (5) hava sayesinde is yapar. Tribüne (5) bagli olan alternatör (6) ile elektrik üretilir. Havalar çok soguk oldugu zaman, tuzlu deniz suyu -2°C altinda, göl suyu O°C"de donar. Göl suyu buz alti +4°C3dir. Deniz ve gölde buz altindan alinan su isi degistirici (12) ile isitilan antifriz içeren su bir pompa (9) yardiiniyla isitici H°ye (3) getirilir. lsi degistiriciden (12) pompa (9) ile isitici II"ye (3) su aktaran sistem kapali devre olarak çalismaktadir. Karsi taraftan kompresörden (l) emilip, basilan soguk hava isitilir. Isinan basinçli hava türbine (5) gider, genisler ve alternatörü (6) tahrik eder ve elektrik üretir. Dis ortam çok soguk oldugu için gerekli tüm izolasyonlar ve tedbirler alinir. Transmitter (22) sicaklik algilayici görevi yapmaktadir. Elektrik motoru (23) kompresör (1) motorunun akim frekans degistirici (20) ile kontrol edilmesini saglamaktadir. Elektrik motoru (23) transmitterden (22) sicaklik sinyalini alir, kompresör (1) motorunun hizini (devir/dakika) ayarlamaktadir. Bulus konusu sistem sayesinde hiçbir yakita gereksinim duyulmadan yilin 4 mevsimi 24 saat 7 gün sürekli enerji (elektrik) üretilmis olunur. Çevre sicakligi; yeralti sabit sicakliginin 6-70 C altinda ve üstünde minimum elektrik üretir, verimli degildir. Bulus konusu sistem ana karada herhangi bir yerde kurulur ve elektrik üretir. Bulus konusu sistemde hiçbir fosil yakit kullanilmaz, tamamen yesil enerjidir. Bulus konusu sistem fosil yakitlar bittikten sonra daha da degerlenecektir ve Paris En ideal elektrik üretimi rüzgâr ve fotovoltaik (solar) panellerle üretilendir. Ama bunlar istendigi zaman elektrik üretemezler. Örnegin, hava rüzgârli olmadigi zamanda, bulutlu oldugu zamanda, gece oldugu zamanda elektrik üretemez. Bulus konusu elektrik üretim sistemi rüzgâr ve günesin yokluklarinda da elektrik üretir. Elektrik üretim sistemi isi pompalarinda kullanilan elektrik ihtiyacini da karsilamaktadir. Sivi ve buharin sabit basinçta isitildigi ve sogutuldugu, pompalarda akiskan izentropik olarak sikistirildigi, türbinde (5) akiskanin izentropik olarak genisledigi, Kinetik ve Potansiyel enerjilerdeki farkliliklar ihmal edilebilir seviyede oldugunu ve bu durum h:u+pv"de iç enerjiyle ifade edilmektedir. Sürekli isletim sartlarinin geçerli oldugu (SASA), isiticida, borularda, türbinde ve pompalarda isi kaybi ihmal edilebilir sekilde izole edildigi, eksenel boyda isi iletimin çok az oldugu ve ihmal edilebilir oldugu, sürekli denklemi hep sagladigi (SASA), akiskanin özelliklerinin sabit kaldigi kabul edilmektedir. Türbin (5) girisinde basinçli hava tüpü (10) bulunmaktadir. Bu basinçli hava tüp (10) sistem basincindadir. Sistem yol almadan önce kumanda panosundan sinyal alir ve solenoid valf (14) açilir ve türbine (5) basinçli hava gönderilir. Sistem çalismaya baslar. Sistem tam yol alinca kumanda panosundan aldigi sinyal ile basinçli hava tüpü (10) tekrar dolar ve valf (14) kapatir. Türbine (5) entegre olan alternatör (6) çalisir ve elektrik üretir. Bulus konusu sistem ile elektrik üretirken kesinlikle zehirli gazlar çikarmamakta, temiz enerji kaynaklari kullanilmaktadir. Bulus konusu sistem, kansere neden olan zehirli gaz kullanimi içermemektedir. Bulus konusu sistem, 365 gün 24 saat elektrik üretebilmektedir. Bulus konusu sistem ile tarlalarda gördügümüz 154 kv, 380kv ve 750kv devasa elektrik direklerinin kullanimi azalacaktir. Ana karada istedigimiz her yerde elektrik üretimi saglanacaktir. Bulus konusu sistemde, hiçbir fosil yakit kullanilmayacak, enerjisini günesin radyasyonundan, havadan, topraktan ve denizden almaktadir. Bulus konusu sistem ile dünya soguyacak, ozon tabakasi yok olmayacak, buzullar erimeyecek. Alçak araziler sular altinda kalmayacak. Hiçbir fosil yakit kullanilmayacak. Bulus konusu sistem enerjisini günesin radyasyonundan, havadan, topraktan ve denizden alarak çevre dostu bir üretim saglamaktadir. TR TR TR TR DESCRIPTION ARI ENERGY PRODUCTION SYSTEM Technical Field The invention relates to an electrical energy production system containing the sun, atmospheric air, subsoil and sea water as energy sources. The invention is related to geophysics, meteorology, marine and thermodynamic sciences. The system used in the invention can be given as an example of a heat engine described in thermodynamics. Prior Art Heating and cooling systems use a heat pump to transport the existing heat energy in one environment to another environment in exchange for the work done by consuming electrical energy. Accordingly, heat pumps are used for both heating and cooling, and today almost all cooling systems are based on heat pump technology. It is widely used in developed countries around the world. With this system, ~75% of the heat is provided. The remaining ~25% is used as electrical energy. Heating and cooling are provided. The center of our world is ~6000°C. This temperature is transmitted from the center of the earth to the earth in accordance with the 2nd Law of Thermodynamics. Depending on the structure of the earth, various temperatures also reach the earth. Sometimes it is +40°C or +130°C, as in thermal waters. is +13°C. Some regions are very good conductors, while others are poor conductors. As a result, it comes to the earth at a certain temperature and this heat flow is regular. On the other hand, due to the influence of the sun on the earth, there are differences in temperature depending on the seasons, day and night. Temperature affects the outer shell up to a certain depth. At the intersection of these changes on the surface and the temperatures coming in the same direction from the center of the earth, the temperature remains constant depending on the region. This fixed code mentioned is mainly implemented in our invention. Various improvements have been made in the technique regarding the energy production system. In the state-of-the-art patent document numbered U88276383B2, a closed circuit is mentioned in which the refrigerant is used to drive a turbine that can be used to drive an electric generator or for other suitable purposes. The mentioned document does not contain information regarding the use of four separate energy sources: sun, atmospheric air, subsoil and sea water. As a result of advances in technology, existing electricity generation systems cause air pollution due to the fossil fuels they use. For this reason, there was a need to develop the energy production system that is the subject of the invention. Purpose of the Invention The purpose of this invention is to realize an energy production system that does not harm nature by using air instead of fossil fuel. Another purpose of this invention is to realize an energy production system that eliminates the poisoning and carcinogenic effects of CO, C02 and NOx, lCl, sulfur oxides, lead compounds, gasoline and diesel vapors that come out of the exhaust of fuels such as gasoline, diesel and LPG. Another purpose of this invention is to create a clean world with an electricity production system that does not emit toxic gases while producing electricity. Detailed Description of the Invention The energy production system implemented to achieve the purpose of this invention is shown in the attached figures. These shapes; Figure 1: Schematic view of the energy production system. Figure 2: An abbreviated diagram of the solar energy flow diagram of the energy production system. Figure 3: An abbreviated diagram of the soil energy flow diagram of the energy production system. Figure 4a: View of the underground serpentine diagram of the energy production system. Figure 4b: It is the underground sectional view of the underground serpentine diagram of the energy production system. Figure 5: Above ground view of the flat-surfaced solar collector shield of the energy production system. Figure 6: Side view of the flat-surface solar collector scheme of the energy production system. Figure 7: A cross-sectional view of the flat-surface solar collector scheme of the energy production system. The parts in the figures are numbered one by one, and the equivalents of these numbers are given below. 1. Compressor 2. Heater 3. Heater 11 4. Solar collector. Turbine 6. Alternator 7. Blower Serpentine Compressed air tube. Exhaust Outlet Air filter Glass cover Absorber plate Air flow duct Insulation Current frequency changer Transmitter Electric motor The invention is an energy production system; Compressor (l) in the system, heater I (2) connected to the compressor (1), heater II (3) connected to the compressor (1), alternator (6) connected to the turbine (5), and blower (7) coil (8), compressed air tube (10) connected to the turbine (5), exhaust outlet (11) connected to the turbine (5), heat exchanger (12) connected to the pump (9), - air connected to the compressor (1) filter (13), - Solar collector (4) with heater l (2), heater l (2) with compressor (1), solar collector (4) with compressor (1), turbine (5) with heater l (2) , blower (7) with serpentine (8), air filter (13) with compressor (1), serpentine (8) with compressor (1), heater II (3) with turbine (5) and compressed air cylinder (10) with turbine It contains the valve (14) parts positioned between (5). With the electrical system of the invention, only electricity is produced. The system subject to the invention contains four energy sources. These are sun, air, soil, sea or lake. They are solar air collectors that we use to obtain hot water from the solar energy source in the system of the invention (4). How it is arranged is shown in Figure 5 and its cross-section is shown in Figure 7. It consists of solar collector (4), glass cover (15), absorber plate (16), wing (17'), air flow section (18) and insulation (19). The rays coming from the sun have short wavelengths. Solar rays pass through the collector glass cover (15) (single glass or double glass) and are absorbed by the absorber plate (16) and converted into heat. The absorber plate (16) heats up. Since its temperature is low, the light it emits has a large wavelength. These rays cannot pass through the glass cover material, thus the absorber plate (16) heats up and its temperature increases. In this way, the air passing under the absorber plate (16) is heated. Circulation is achieved by circulating air with the compressor (1). Hot water or drying etc. It is used for different purposes. The heated air is prevented from escaping outside by the insulation layer (19). In air solar collectors (4), wings (17) are used to increase the surface. All collectors (4) face south and are positioned inclined. Cold air comes in from below, hot air comes out from above. This hot air is collected and goes to the turbine (5). In the system of the invention, the cold air taken from the underground is compressed with the help of the compressor (1). The compressed air is heated by the air heater I (2) and then the solar collector (4) to ~60°C with the help of the fan (21). The heated air goes to the turbine (5). It rotates with the air inside the turbine (5) and produces heat. Electricity is produced by the alternator (6) connected to the turbine (5). The air coming out of the turbine (5) goes underground again and there is a coil (8) underground to further cool the air. The serpentine (8) can preferably be a winged polyethylene pipe. It carries the point where the temperature remains constant to the soil surface. In this way, we are saved from a great deal of expense, because the insulation wall will not be built until the constant temperature. With the insulation, we will make the area on the sides wider. The heat flow will be reset. A second method is to find a constant temperature at a constant annual depth by measuring it through experiments. The area determined up to this depth is isolated from the sides and insulation is made on the area. When the weather is cold, the underground is warm. In the system of the invention, this temperature is taken from the underground coil (8) with the help of a blower (7) and passed through the heater 11° (3). With the help of the compressor (l), the cold air taken from the external environment is compressed. The heated air in the heater IP (3) goes to the turbine (5), expands, turns the alternator (6) and produces electricity. The compressor (l) continues to operate when there is no sun. The solar collector (4) (solar collector groups) is disabled. Only heater I (2) remains active and heats the compressed air. The heated pressurized air is sent to the turbine (5). It produces soot thanks to the air in the turbine (5). Electricity is produced by the alternator (6) connected to the tribune (5). When the weather is very cold, salty sea water freezes below -2°C, and lake water freezes at 0°C. Lake water under ice is +4°C3. The water taken from under the ice in the sea and lake is water containing antifreeze, heated by a heat exchanger (12). It is brought to heater H (3) with the help of a pump (9). The system that transfers water from the heat exchanger (12) to heater II (3) with the pump (9) operates as a closed circuit. The cold air sucked and compressed from the compressor (l) on the opposite side is heated. The heated compressed air goes to the turbine (5), expands and drives the alternator (6) and produces electricity. Since the outdoor environment is very cold, all necessary insulation and precautions are taken. Transmitter (22) serves as a temperature sensor. The electric motor (23) enables the compressor (1) motor to be controlled by the current frequency changer (20). The electric motor (23) receives the temperature signal from the transmitter (22) and adjusts the speed (rpm) of the compressor (1) motor. Thanks to the system of the invention, energy (electricity) is produced continuously, 24 hours a day, 7 days a year, in 4 seasons of the year, without the need for any fuel. Environmental temperature; It produces minimum electricity at 6-70 C below and above the underground constant temperature and is not efficient. The system subject to the invention can be installed anywhere on the mainland and produces electricity. No fossil fuel is used in the system subject to the invention, it is completely green energy. The system subject to the invention will be even more valuable after fossil fuels are exhausted and Paris The most ideal electricity production is the one produced by wind and photovoltaic (solar) panels. But these cannot produce electricity on demand. For example, it cannot produce electricity when the weather is not windy, when it is cloudy, or at night. The electricity generation system of the invention produces electricity even in the absence of wind and sun. The electricity generation system also meets the electricity needs used in heat pumps. Liquid and steam are heated and cooled at constant pressure, the fluid is compressed isentropically in pumps, the fluid expands isentropically in the turbine (5), the differences in Kinetic and Potential energies are negligible, and this is expressed as internal energy in h:u+pv. Continuous operation It is accepted that the conditions are valid (SASA), the heat loss in the heater, pipes, turbine and pumps is isolated in a negligible manner, the axial heat conduction is very low and negligible, the continuous equation is always satisfied (SASA), and the properties of the fluid remain constant. There is a compressed air tube (10) at the inlet (5). This compressed air tube (10) is at system pressure. Before the system starts, it receives a signal from the control panel and the solenoid valve (14) is opened and pressurized air is sent to the turbine (5). When the system reaches full speed, the compressed air cylinder (10) fills again with the signal it receives from the control panel and the valve (14) closes, the alternator (6) integrated into the turbine (5) operates and produces electricity. While producing electricity with the system subject to the invention, it does not emit any toxic gases and clean energy sources are used. The system of the invention does not include the use of toxic gas that causes cancer. The system subject to the invention can produce electricity 24 hours a day, 365 days a week. With the system of the invention, the use of 154 kV, 380 kV and 750 kV giant electric poles that we see in the fields will decrease. Electricity will be produced wherever we want on the mainland. In the system subject to the invention, no fossil fuel will be used and it receives its energy from solar radiation, air, soil and sea. With the system of the invention, the world will cool down, the ozone layer will not disappear, and the glaciers will not melt. Low lands will not be flooded. No fossil fuels will be used. The system subject to the invention provides environmentally friendly production by taking its energy from solar radiation, air, soil and sea. TR TR TR TR

Claims

1.CLAIMS The invention is an energy production system; - Compressor (l) in the system, - Heater I (2) connected to the compressor (1), - Heater II (3) connected to the compressor (1), - Solar collector (4) connected to the heater I (2), - It is characterized by containing heater I (2), heater II (3) and turbine (5) parts connected to heater II (3). The invention is an energy production system as claimed in the claim and is characterized by containing an alternator (6) connected to the turbine (5). The invention is an energy production system as in claim 1 and is characterized by containing a blower (7) connected to heater II (3). The invention is an energy production system as in claim 3 and is characterized by containing a serpentine (8) connected to the blower (7). The invention is an energy production system as in claim 1 and is characterized by containing a pump (9) connected to heater II (3). The invention is an energy production system as in claim 1 and is characterized by containing a pressurized air tube (10) connected to the turbine (5). The invention is an energy production system as in claim 1 and is characterized by containing an exhaust outlet (11) connected to the turbine (5). The invention is an energy production system as in claim 1 and is characterized by containing a heat exchanger (12) connected to the pump (9). The invention is an energy production system as in claim 1 and is characterized by containing an air filter (13) connected to the compressor (1). The invention is an energy production system as in any of the above claims, heater I (2) and solar collector (4), compressor (1) and heater I (2), compressor (1) and solar collector (4), heater I (2). ) with turbine (5), blower (7) with serpentine (8), air filter (13) with compressor (l), serpentine (8) with compressor (l), heater II (3) with turbine (5) and compressed air It is characterized by containing a valve (14) positioned between the tube (10) and the turbine (5). TR TR TR TR