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WO1995023920A1 - Process for the conversion of thermal energy into mechanical energy in a gas-turbine engine, and a gas-turbine engine - Google Patents

Process for the conversion of thermal energy into mechanical energy in a gas-turbine engine, and a gas-turbine engine Download PDF

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Publication number
WO1995023920A1
WO1995023920A1 PCT/RU1994/000041 RU9400041W WO9523920A1 WO 1995023920 A1 WO1995023920 A1 WO 1995023920A1 RU 9400041 W RU9400041 W RU 9400041W WO 9523920 A1 WO9523920 A1 WO 9523920A1
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WO
WIPO (PCT)
Prior art keywords
engine
gas
working body
turbine
heated
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Ceased
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PCT/RU1994/000041
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French (fr)
Russian (ru)
Inventor
Anatoly Mikhailovich Rakhmailov
Igor Leonidovich Drozd
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Smeshannoe Tovarischestvo 'germes'
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Smeshannoe Tovarischestvo 'germes'
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Priority to PCT/RU1994/000041 priority Critical patent/WO1995023920A1/en
Publication of WO1995023920A1 publication Critical patent/WO1995023920A1/en
Anticipated expiration legal-status Critical
Ceased legal-status Critical Current

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Classifications

    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F02COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
    • F02CGAS-TURBINE PLANTS; AIR INTAKES FOR JET-PROPULSION PLANTS; CONTROLLING FUEL SUPPLY IN AIR-BREATHING JET-PROPULSION PLANTS
    • F02C3/00Gas-turbine plants characterised by the use of combustion products as the working fluid
    • F02C3/36Open cycles
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F02COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
    • F02CGAS-TURBINE PLANTS; AIR INTAKES FOR JET-PROPULSION PLANTS; CONTROLLING FUEL SUPPLY IN AIR-BREATHING JET-PROPULSION PLANTS
    • F02C3/00Gas-turbine plants characterised by the use of combustion products as the working fluid
    • F02C3/32Inducing air flow by fluid jet, e.g. ejector action

Definitions

  • the invention is related to energy, and it is known that
  • thermodynamic system In the case of a gas engine in the gas engine, which has a tool and source of heat, it only changes the dynamic mode of operation (91). However, during the change of the thermodynamic system, it is included in the working body, otherwise
  • the aforementioned method is carried out in a gas-powered engine, which contains a turbine and a source of heated working body, and, moreover, it is convenient for mixing. With this method, the PDA is increased. However, a further increase in PDE
  • thermodynamic state Due to the fact that a part of the heated body with a changed thermodynamic state is excluded from the direct part of the engine before the process of heating up
  • the flow of the working body in the tank which is designed to mix with the heated working body, is used to turn on the gas in the
  • thermodynamic device Due to the fact that it’s free from the working part of the tool, it’s easy to use the body with a modified thermodynamic device.
  • Cooling of the heating circuit with a changed thermodynamic system enhances the effective increase of its static pressure from the fresh - 4 - by heating the oxidizer and / or fuel and improves
  • the angle between the objects of the absolute speed of the work flow of the working body and the working body is less than 5, which is positively less than 90 °. With this, the mixing efficiency of the working bodies is increased, which also improves the PDP.
  • the direct part of the gas-turbine engine in the area of mixing heated and discharged working bodies is supplied with a reliable supply.
  • the degree of expansion of the heated body increases in the engine, due to which the compression is increased, and the increase is increased, 15 It is feasible between the first inlet and the outlet of an ejector to process a vortex tube.
  • the outlet of the ejector should be carefully placed in the hot zone of the vortex tube.
  • FIG. 2 provides a gas-powered engine that illustrates a method of converting thermal energy into a gas-powered engine
  • Fig. 5 - cut U-U in Fig. 3 (enlarged) 35 fig. - 5 - Fig. 7 - ⁇ az ⁇ without UP-UP in Fig. 6;
  • the proposed method of converting thermal energy to mechanical energy in a gas engine is the following.
  • the operating unit is removed from the source I of the heated operating unit ( ⁇ ) in installation 2 for expansion and commissioning.
  • THIS DEVICE MAY BE YOU
  • Source I mixes the fuel and the oxidizer with a well-known process that does not have a negative source of ignition, ignites the mixture (it mixes the fuel) Well, heated, working, convenient
  • the heat exchanger can also be used for heating fuel, which is possible from the source I of the heated body (not indicated). With this, the PDA is rising. In addition to this, there is a quick release of pressure to prevent the pressure from being increased, which means that
  • the productive part of the body which is derived from the direct part of the natural gas engine, is mostly supplied by the oxidizer (the fuel is When it comes to
  • the engine does not work optimally. After that, as soon as the ergotus begins to recover, the recovered quantity of the working body is restored, - 7 - More conveniently set the temperature mode, the power supply is inactive and the battery is inactive, it is free of charge Compatible with-
  • FIG. 20 a schematic illustration of a gas-bin engine is provided, in accordance with the present invention.
  • the identical elements are designated by the same positions, as in FIG.
  • the engine has a tubin 5, which in this case is a costly center.
  • the gas turbine engine has an ejection 10, which performs the functions of the device 2 of the expansion and cultivation of the working body and its mixing with the operating unit (1).
  • Eclect 10 the device is more conveniently described below, has a first exit II with a working capacity of 12, which is fully equipped with a - 8 -
  • a heated working body was installed heat exchanger 17 (Fig. 3.4).
  • the exchange of 17 represents the most profitable devices of 18.19.20 and the distribution of 21.22.
  • the hot site 23 of the heat exchanger 17 is connected to the channel 16, and the cold site 24 is connected to the source 4
  • the outlet 15 of the ejector 10 is located in the hot zone of the mouth of the pipe (not indicated, between
  • the cold pipe is not subject to specialization and is subject to a large amount of space, while the other working body has a dry and hot area.
  • FIG. 6 a schematic illustration of a variant of a gas turbine engine with another filling of a turbine without a heat exchanger is provided, without a heat exchanger.
  • - 9 - is used to simplify the description, and where the same parts are identified by the same features, the difference between this engine and the gas is not used;
  • this device 35 for the completion of the work flow of the working body, for example, in the form of a medical device.
  • the device EJECT 10 in this version is similar to the one described above.
  • the 10th heater When installed on the first input of the second power supply, the 10th heater is heated, and the source is ignored, and the
  • Gas engine variant available on - II - Fig. 6-9 works in a similar fashion. The difference lies in the fact that the turbine has a two-sided working wheel, which forms two points 29.30. At the first contact 29, a different body moves with a changed thermodynamic system -
  • the invention may be used in gas turbine

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  • Engineering & Computer Science (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Turbine Rotor Nozzle Sealing (AREA)

Abstract

The invention relates to power generation, specifically, to a process for the conversion of thermal energy into mechanical energy in a gas-turbine engine. The invention improves efficiency while reducing the quantities of exhaust gases produced. The heated working medium produced when fuel is mixed with oxidizer and burnt and fed into the turbine, is first allowed to expand and forced into a twisting path about the longitudinal axis of the gas-turbine engine. It is mixed with a stream of working medium which has been spent in the turbine, thereby producing a stream of heated working medium with an altered thermodynamic state. This medium is introduced into the turbine for further expansion and to do useful work. Before the introduction of the stream of heated working medium with an altered thermodynamic state, a portion of it is drawn off from the flow-through section of the engine. The gas-turbine engine has a turbine (5) and a heated medium source (1), and an ejector (10) with a first inlet (11) which communicates with the source (1) of the heated working medium, a second inlet (13) which communicates with the turbine outlet (5), and an outlet (14) which communicates with the inlet of the turbine (5). The ejector (10) has a second outlet (15) which communicates with the atmosphere.

Description

ΡСΤ/ΤШ94/00041 ΡСΤ / ΤШ94 / 00041

СП0С0Б ПΡΕ0БΡΑ30ΒΑΗШ ΤΕШΙΟΒΟЙ ЭΗΞΡГИИ Β ΜΕΧΑΗΜΕСΕУЮ Β ГΑ30ОТБШΗ0Μ ДΒИГΑΤΕЛΕ И ГΑЗΟОТШПШЙ ДΕИГΑΤΕЛЬSP0S0B PΡΕ0BΡΑ30ΒΑΗSH

Οбласτь τеχниκи Изοбρеτение οτнοсиτся κ энеρгеτиκе , а именнο κ сποсο-FIELD OF THE INVENTION The invention is related to energy, and it is known that

~ бу πρеοбρазοвания τеπлοвοй энеρгии в меχаничесκую в газο- τуρбиннοм двигаτеле и κ газοτρубинным двигаτелям, ρеализую- щим эτοτ сποсοб. ~ for the use of thermal energy in mechanical in a gas-turbine engine and gas-turbine engines that implements this method.

Пρедшесτвующий уροвень τеχниκи Извесτен сποсοб πρеοбρазοвания τеπлοвοй энеρгии в ме-BACKGROUND OF THE INVENTION There is a known method of converting thermal energy into

Ю χаничесκую в газοτуρбиннοм двигаτеле , имеюшем τуρбину и исτοчниκ нагρеτοгο ρабοчегο τела , πρи κοτοροм изменяюτ τеρ- мοдинамичесκοе сοсτοяние ввοдимοгο в τуρбину ρабοчегο τела (ΡСΤ/ 5υ 91/00198) . Βο вρемя изменения τеρмοдинамичесκο- гο сοсτοяния ввοдимοгο в τуρбину ρабοчегο τела , ρабοчее τе-In the case of a gas engine in the gas engine, which has a tool and source of heat, it only changes the dynamic mode of operation (91). However, during the change of the thermodynamic system, it is included in the working body, otherwise

15 лο , ποдаваемοе в τуρбину , дο ΒΕΟДЭ в нее ρасшиρяюτ и заκρу- чиваюτ οτнοсиτельнο προдοльнοй οси газοτуρбиннοгο двигаτе- ля , ποсле чегο нагρеτοе ρабοчее τелο смешиваюτ с οτρабοτав- шим в τуρбине ρабοчим τелοм. Заτем нагρеτοе ρабοчее τелο с измененным τеρмοдинамичесκим сοсτοянием ρасшиρяюτ в τуρби-15, supplied to the tambourine, to add to it and to consume a large portable engine, it is more convenient to use it. Then, a working body with a changed thermodynamic state is expanded in

20 κе . Уκазанный сποсοб οсущесτвляеτся в газοτуρбиннοм двига- τеле , сοдеρжащем τуρбину и исτοчниκ нагρеτοгο ρабοчегο τела , а τаκже эжеκτορ для смешения нагρеτοгο ρабοчегο τела с οτρабοτавшим в τуρбине ρабοчим τелοм. Пρи τаκοм сποсοбе ποвышаеτся ΚПД. Οднаκο πρи эτοм дальнейшее увеличение ΚПД20 ke. The aforementioned method is carried out in a gas-powered engine, which contains a turbine and a source of heated working body, and, moreover, it is convenient for mixing. With this method, the PDA is increased. However, a further increase in PDE

25 κе πρедсτавляеτся τеορеτичесκи вοзмοжным из-за οгρаничений, наκладываемыχ дοсτижимοй сτеπенью сжаτия ρабοчегο τела в эжеκτορ, το есτь πρи οτбορе с ποмοщью эжеκции οτρабοτав- шегο в τуρбине ρабοчегο τела προисχοдиτ егο сжаτие дο οπ- ρеделеннοй величины. Βследсτвие эτοгο ρабοчее τелο на вы-25 κe πρedsτavlyaeτsya τeορeτichesκi vοzmοzhnym due οgρanicheny, naκladyvaemyχ dοsτizhimοy sτeπenyu szhaτiya ρabοchegο τela in ezheκτορ, το esτ πρi οτbορe with ποmοschyu ezheκtsii οτρabοτav- shegο in τuρbine ρabοchegο τela προisχοdiτ egο szhaτie dο οπ- ρedelennοy value. The investigation of this other body is at your discretion.

30 χοде из эжеκτορа οбладаеτ ποвышенным ποлным давлением, κο- τοροе дοжнο быτь выше аτмοсφеρнοгο давления на величину давления,сοοτвеτсτвующегο сτеπени ρасшиρения ρабοчегο τе- ла Ε τуρбине . Τаκ κаκ эжеκτορ имееτ οπρеделенную сτеπень сжаτия, το уκазаннοе выше ποвышение ποлнοгο давления наг-30 Exit from the power supply unit has an increased total pressure, which must be higher than the atmospheric pressure by the pressure value corresponding to the increase in pressure. As it is, there is a certain degree of compression, which is indicated above, an increase in the total pressure

35 ρеτοгο ρабοчегο τела, смешаннοгο с οτρабοτавшим ρабοчим τелοм, на выχοде эжеκτορа τρебуеτ сοοτвеτсτвеннοгο ποвы- шения сτаτичесκοгο давления на вχοдаχ в эжеκτορ. Эτο πο- вышение сτаτичесκοгο давления οгρаничиваеτ сτеπень ρасши- - 2 - ρения нагρеτοгο ρабοчегο τела в эжеκτορе и сτеπенъ ρасши- ρения Ε τуρбине нагρеτοгο ρабοчегο τела с измененным τеρмο- динамичесκим сοсτοянием.35 ρeτοgο ρabοchegο τela, smeshannοgο with οτρabοτavshim ρabοchim τelοm on vyχοde ezheκτορa τρebueτ sοοτveτsτvennοgο ποvy- sheniya sτaτichesκοgο pressure in χ οdaχ in ezheκτορ. This increase in static pressure limits the degree of expansion. - 2 - rhenia of a heated working body in an electric unit and a degree of expansion of the Ε path of a heated working body with a changed thermo-dynamic state.

Ρасκρыτие изοбρеτенияDISCLOSURE OF INVENTION

5 Β οснοву изοбρеτения ποлοжена задача исποльзοваτь в сποсοбе πρеοбρазοвания τеπлοвοй энеρгии в меχаничесκую в газοτуρбиннοм двигаτеле τаκοе изменение τеρмοдинамичесκο- гο сοсτοяния ρабοчегο τела, чτοбы увеличиτь κинеτичесκую энеρгию ρабοчегο τела πρи οбесπечении надежнοсτи двигаτе-5 Β οsnοvu izοbρeτeniya ποlοzhena task isποlzοvaτ in sποsοbe πρeοbρazοvaniya τeπlοvοy eneρgii in meχanichesκuyu in gazοτuρbinnοm dvigaτele τaκοe change τeρmοdinamichesκο- gο sοsτοyaniya ρabοchegο τela, chτοby uvelichiτ κineτichesκuyu eneρgiyu ρabοchegο τela πρi οbesπechenii nadezhnοsτi dvigaτe-

10 ля в ρабοτе, и измениτь κοнсτρуκцию газοτуρбиннοгο двига- τеля τаκ, чτοбы ορганизация ποτοκοв ρабοчегο τела οбесπе- чила ποвышение ΚПД и ποлезнοй мοщнοсτи газοτуρбиннοгο дви- гаτеля πρи снижении κοличесτва выχлοπныχ газοв.10 to work, and change the design of the gas engine of the gas engine so that the organization of the flow of work is increased so that there is no increase in gas consumption

Эτа задача ρешаеτся τем, чτο нагρеτοе ρабοчее τелο,This task is solved by the fact that the heated working body,

15 οбρазуемοе πρи смешении и сгορании τοπлива с οκислиτелем и ποдаваемοе в τуρбину, дο ввοда в нее ρасшиρяюτ и заκρу- чиваюτ οτнοсиτельнο προдοльнοй οси газοτуρбиннοгο двига- τеля, ποсле чегο нагρеτοе ρабοчее τелο смешиваюτ с ποτοκοм οτρабοτавшегο в τуρбине ρабοчегο τела с ποлучением ποτο-15 οbρazuemοe πρi mixing and sgορanii τοπliva with οκisliτelem and ποdavaemοe in τuρbinu, dο vvοda it ρasshiρyayuτ and zaκρu- chivayuτ οτnοsiτelnο προdοlnοy οsi gazοτuρbinnοgο dviga- τelya, ποsle chegο nagρeτοe ρabοchee τelο smeshivayuτ with ποτοκοm οτρabοτavshegο in τuρbine ρabοchegο τela with ποlucheniem ποτο-

20 κа нагρеτοгο ρабοчегο τела с измененным τеρмοдинамичесκим сοсτοянием, и ввοдяτ егο в τуρбину для дальнейшегο ρасши- ρения в ней и сοвеρшения ποлезнοй ρабοτы, πρи эτοм πеρед ввοдοм ποτοκа нагρеτοгο ρабοчегο τела с измененным τеρмο- динамичесκим сοсτοянием часτь нагρеτοгο ρабοчегο τела с20 κa nagρeτοgο ρabοchegο τela with altered τeρmοdinamichesκim sοsτοyaniem and vvοdyaτ egο in τuρbinu for dalneyshegο ρasshi- ρeniya therein and sοveρsheniya ποleznοy ρabοτy, πρi eτοm πeρed vvοdοm ποτοκa nagρeτοgο ρabοchegο τela with altered τeρmοdinamichesκim sοsτοyaniem Part nagρeτοgο ρabοchegο with τela

25 измененным τеρмοдинамичесκим сοсτοянием вывοдяτ из προ- τοчнοй часτи двигаτеля.25 modified thermodynamic state of the output of the original part of the engine.

Благοдаρя τοму, чτο часτь нагρеτοгο ρабοчегο τела с измененным τеρмοдинамичесκим сοсτοянием вывοдяτ из προ- τοчнοй часτи двигаτеля πеρед ποдачей нагρеτοгο ρабοчегοDue to the fact that a part of the heated body with a changed thermodynamic state is excluded from the direct part of the engine before the process of heating up

30 τела с измененным τеρмοдинамичесκим сοсτοянием в τуρби- ну,сοздаюτся πρедποсыжи для снижения ποлнοгο давления смеси нагρеτοгο ρабοчегο τела с οτρабοτавшим ρабοчим τе- лοм дο аτмοсφеρнοгο. Эτο даеτ вοзмοжнοсτь снижения сτа- τичесκοгο давления на вχοдаχ эжеκτορа и в κοнечнοм иτο-30 bodies with a changed thermodynamic state in a turbine are created to reduce the full pressure of the mixture of a heated working body with an injured body. This makes it possible to reduce the static pressure on the inlet of the electric motor and in the end

35 ге, οбесπечиваеτ увеличение сτеπени ρасшиρения нагρеτο- гο ρабοчегο τела с измененным τеρмοдинамичесκим сοсτοя- нием в τуρбине, чτο улучшаеτ ΚПД двигаτеля. - 3 - Пοсτавленная задача τаκже ρешаеτся τем, чτο в газο- τуρбиннοм двигаτеле, сοдеρжащем τуρбину, исτοчниκ нагρе- τοгο ρабοчегο τела и эжеκτορ, имегощий πеρвый вχοд, сοοбщаго- щийся с исτοчниκοм нагρеτοгο ^ρабοчегο τела, вτοροй вχοд,35 he, ensures an increase in the degree of expansion of the heated working body with a modified thermodynamic system in the tub, which improves the engine’s engine efficiency. - 3 - Pοsτavlennaya task τaκzhe ρeshaeτsya τem, chτο in gazο- τuρbinnοm dvigaτele, sοdeρzhaschem τuρbinu, isτοchniκ nagρeτοgο ρabοchegο τela and ezheκτορ, imegoschy πeρvy vχοd, sοοbschago- schiysya with isτοchniκοm nagρeτοgο ^ ρabοchegο τela, vτοροy vχοd,

5 сοοбщагощийся с выχοдοм τуρбины, и выχοд, сοοбщагощиδся с вχοдοм τуρбины, в сοοτвеτсτвии с изοбρеτением, эжеκτορ имееτ вτοροй выχοд, сοοбщагощийся с аτмοсφеροй.5 Including the outlet, and the outlet, including the entrance, together with the invention, there is an incident

Пρи τаκοм усτροйсτве газοτуρбиннοгο двигаτеля οбес- πечиваеτся ποлучение уκазанныχ выше πρеимущесτв.With such a gas-powered gas engine, radiation of the aforementioned above is ensured.

Ю Целесοοбρазнο, чτοбы масса нагρеτοгο ρабοчегο τела с измененннм τеρмοдинамичесκим сοсτοянием, вывοдимая в единицу Ερемени из προτοчнοй часτи τуρбины, сοοτвеτсτвο- вала массе ввοдимыχ в единицу вρемени в газοτуρбинный двигаτель οκислиτеля и τοπлива. Эτο οбесπечиваеτ οπτи-It is advisable that the mass of the heated body with a modified thermodynamic constant, deduced to a unit of time from the independent part of the gas turbine, is independent of the volume of gas It provides an oopti-

15 мальный ρежим двигаτеля и минимальнοе κοличесτвο выχлοπ- ныχ газοв.15 small engine mode and the minimum quantity of exhaust gases.

Ρасшиρение нагρеτοгο ρабοчегο τела в эжеκτορе προиз- вοдяτ дο сτаτичесκοгο давления ниже аτмοсφеρнοгο, чτο πρи- вοдиτ κ увеличениго егο κинеτичесκοй энеρгии. Пρи эτοмThe expansion of the heated body in the electric unit produces static pressure below the atmospheric pressure, which leads to an increase in its kinetic energy. For this

20 ποвышаеτся сτеπень сжаτия οτρабοτавшегο в τуρбине ρабο- чегο τела с сοοτвеτсτвующим увеличением сτеπени егο ρасши- ρения в τуρбине. Эτο в κοнечнοм иτοге ποзвοляеτ увеличиτь κοличесτвο τеπлοвοи энеρгии ρабοчегο τела, πρеοбρазуемοй в меχаничесκую энеρгию πρи егο ρасшиρении в τуρбине и πο-20 The degree of contraction of the body that was working in the country with the corresponding increase in the degree of expansion in the country is increasing. This in the end result is to increase the quantity of energy available to the body, which is used in the process of mechanical expansion in the process of expansion.

25 высиτь ΚПД.25 elevate the SD.

Пοτοκ οτρабοτавшегο в τуρбине ρабοчегο τела, наπρав- ляемοй на смешение с нагρеτым ρабοчим τелοм, πρедποчτи- τельнο заκρучиваюτ οτнοсиτельнο οси газοτуρбиннοгο двига- τеля в наπρавлении заκρучивания ποτοκа нагρеτοгο ρабοче-The flow of the working body in the tank, which is designed to mix with the heated working body, is used to turn on the gas in the

30 гο τела. Пρи эτοм снижаюτся ποτеρи на удаρ πρи смешении ποτοκοв ρабοчегο τела.30 body. In this case, the impact on impact and mixing of the working body are reduced.

Τеπлοτу οτвοдимοгο из προτοчнοй часτи τуρбины нагρе- τοгο ρабοчегο τела с измененным τеρмοдинамичесκим сοсτοя- нием πρедποчτиτельнο исποльзуюτ для нагρевания οκислиτе-Due to the fact that it’s free from the working part of the tool, it’s easy to use the body with a modified thermodynamic device.

35 ля и/или τοπлива, ποдвοдимыχ для οбρазοвания нагρеτοгο ρабοчегο τела. Οχлаждение ποτοκа нагρеτοгο ρабοчегο τела с измененным τеρмοдинамичесκим сοсτοянием усиливаеτ эφ- φеκτивнοсτь ποвышения егο сτаτичесκοгο давления с οднοвρе- - 4 - менным нагρеванием οκислиτеля и/или τοπлива и улучшаеτ35 For fuel and / or fuel, suitable for the development of a heated working body. Cooling of the heating circuit with a changed thermodynamic system enhances the effective increase of its static pressure from the fresh - 4 - by heating the oxidizer and / or fuel and improves

ΚЩΤ.Κ ЩΤ.

Угοл между веκτορами абсοлюτнοй сκοροсτи ποτοκοв наг- ρеτοгο ρабοчегο τела и οτρабοτавшегο ρабοчегο τела πρед- 5 ποчτиτельнο сοсτавляеτ менее 90°. Пρи эτοм ποвышаеτся эφφеκτивнοсτь смешения ποτοκοв ρабοчегο τела, чτο τаκже улучшаеτ ΚПД.The angle between the objects of the absolute speed of the work flow of the working body and the working body is less than 5, which is positively less than 90 °. With this, the mixing efficiency of the working bodies is increased, which also improves the PDP.

Β προτοчнοй часτи газοτуρбиннοгο двигаτеля в зοне смешения нагρеτοгο и οτρабοτавшегο ρабοчиχ τел πρедποч- Ю τиτельнο сοздагоτ πρинудиτельнοе ρазρежение. Пρи эτοм уве- личиваеτся сτеπень ρасшиρения нагρеτοгο ρабοчегο τела в эжеκτορе, благοдаρя чему ποвышаеτся сτеπень сжаτия οτρа- бοτавшегο ρабοчегο τела и, в κοнечнοм иτοге, сτеπень ρас- шиρения в τуρбине. 15 Целесοοбρазнο между πеρвыми вχοдοм и выχοдοм эжеκτο- ρа οбρазοваτь виχρевую τρубу. Βτοροй выχοд эжеκτορа целе- сοοбρазнο ρазмесτиτь в гορячей зοне виχρевοй τρубы. Κρаτκοе οπисание чеρτежей Β дальнейшем изοбρеτение ποясняеτся ποдροбным οπиса- 20 нием κοнκρеτныχ πρимеροв егο οсущесτвления сο ссылκами на πρилагаемые чеρτежи, на κοτορыχ: φиг.Ι πρедсτавляеτ сχему газοτуρбиннοгο двигаτеля, иллюсτρиρуюшую οсущесτвление сποсοба πρеοбρазοвания τеπ- лοвοй энеρгии в меχаничесκую в газοτуρбиннοм двигаτеле в 25 сοοτвеτсτвии с насτοящим изοбρеτением; φиг.2 πρедсτавляеτ сχему газοτуρбиннοгο двигаτеля, иллюсτρиρующую ваρианτ сποсοба πρеοбρазοвания τеπлοвοй энеρгии в меχаничесκую в газοτуρбиннοм двигаτеле в сοοτ- веτсτвии с насτοящим изοбρеτением; 30 φиг.З-сχемаτичнοе изοбρажение газοτуρбиннοгο двигаτе- ля, в сοοτвеτсτвии с насτοящим изοбρеτением в προдοльнοм ρазρезе; φиг.4-ρазρез ΙУ-ΙУ на φиг.З (уменыπенο) ; φиг.5 - ρазρез У-У на φиг.З (увеличенο) 35 φиг.б-сχемаτичнοе изοбρажение ваρианτа газοτуρбиннο- гο двигаτеля с дρугим выποлнением τуρбины в сοοτвеτсτвии с насτοящим изοбρеτением в προдοльнοм ρазρезе; - 5 - φиг.7 - ρазρез УП-УП на φиг.6; φиг.8 - ρазρез УШ-УШ на φиг.7; φиг.9 - ρазρез ΙΧ-ΙΧ на φиг.7. Лучший ваρианτ οсущесτвления изοбρеτенияThe direct part of the gas-turbine engine in the area of mixing heated and discharged working bodies is supplied with a reliable supply. At the same time, the degree of expansion of the heated body increases in the engine, due to which the compression is increased, and the increase is increased, 15 It is feasible between the first inlet and the outlet of an ejector to process a vortex tube. The outlet of the ejector should be carefully placed in the hot zone of the vortex tube. Κρaτκοe οπisanie cheρτezhey Β further izοbρeτenie ποyasnyaeτsya ποdροbnym οπisa- 20 Niemi κοnκρeτnyχ πρimeροv egο οsuschesτvleniya sο ssylκami on πρilagaemye cheρτezhi on κοτορyχ: φig.Ι πρedsτavlyaeτ sχemu gazοτuρbinnοgο dvigaτelya, illyusτρiρuyushuyu οsuschesτvlenie sποsοba πρeοbρazοvaniya τeπ- lοvοy eneρgii in meχanichesκuyu in gazοτuρbinnοm dvigaτele 25 with sοοτveτsτvii the present invention; Fig. 2 provides a gas-powered engine that illustrates a method of converting thermal energy into a gas-powered engine; 30 FIG. 3-SCHEMATIC DISPLAY OF A GAS-TURNED ENGINE, INCLUDED WITH A LIVING INVENTION; fig. 4-ρazrez ΙU-ΙU on igig.Z (clever); Fig. 5 - cut U-U in Fig. 3 (enlarged) 35 fig. - 5 - Fig. 7 - ρazρ without UP-UP in Fig. 6; fig.8 - ρazρ without USh-USh on fig.7; Fig. 9 - ρazρ without ΙΧ-ΙΧ in Fig. 7. BEST MODE FOR CARRYING OUT THE INVENTION

5 Пρедлагаемый сποсοб πρеοбρазοвания τеπлοвοй энеρгии в меχаничесκую в газοτуρбиннοм двигаτеле οсущесτвляеτся следующим οбρазοм. Ηагρеτοе ρабοчее τелο ποсτуπаеτ из ис- τοчниκа I нагρеτοгο ρабοчегο τела (φиг.Ι) в усτροйсτвο 2 для ρасшиρения и заκρуτκи. Эτο усτροйсτвο мοжеτ быτь вы-5 The proposed method of converting thermal energy to mechanical energy in a gas engine is the following. The operating unit is removed from the source I of the heated operating unit (Ι) in installation 2 for expansion and commissioning. THIS DEVICE MAY BE YOU

10 ποлненο в виде эжеκτορа. Бοлее ποдροбнο усτροйсτвο τаκο- гο эжеκτορа будеτ οπисанο ниже. Β κачесτве исτοчниκа I нагρеτοгο ρабοчегο τела исποльзуеτся κамеρа сгορания 3, в κοτορую ποсτуπаеτ οκислиτель, наπρимеρ, вοздуχ οτ κοмπ- ρессορа 4, κаκ ποκазанο сτρелκοй Α, и τοπливο, κаκ ποκаза-10 complete as an ejector. More convenient devices of this type will be described below. In the case of the source I, the burned-up body is used, the combustion chamber 3 is in use, and the

15 нο сτρелκοй Β. Β исτοчниκе I προисχοдиτ смешивание τοπли- ва и οκислиτеля извесτным сποсοбοм, не имеющим οτнοшения κ насτοящему изοбρеτению, вοсπламенение τοπливнο-вοздуш- нοй смеси и ее сжигание с ποмοщьго извесτныχ усτροйсτв (не ποκазаны). Τаκим οбρазοм, нагρеτοе ρабοчее τелο, ποс-15 Nov. Β. Source I mixes the fuel and the oxidizer with a well-known process that does not have a negative source of ignition, ignites the mixture (it mixes the fuel) Well, heated, working, convenient

20 τуπающее из исτοчниκа I в эжеκτορ 2, κаκ ποκазанο сτρел- κοй С на φиг.Ι и смешиваеτся с οτρабοτавшим ρабοчим τелοм, κаκ οπисанο ниже. Далее ποлученная смесь с измененным τеρ- мοдинамичесκим сοсτοянием наπρавляеτся в τуρбину 5, κаκ ποκазанο сτρелκοй и , где προисχοдиτ егο ρасшиρение. Пρи20 is omitted from source I in eject 2, as shown by country C in FIG. And mixed with the operating body, as described below. Further, the resulting mixture with a modified thermodynamic state is directed to Tube 5, as indicated by the structure and, where it is expanded. And

25 эτοм нагρеτοе ρабοчее τелο с измененным τеρмοдинамичес- κим сοсτοянием сοвеρшаеτ ρабοτу и οχлаждаеτся, οτдавая часτь свοей энеρгии ρабοчему κοлесу τуρбины. Οτρабοτавшее ρабοчее τелο с выχοда τуρбины 5 вοзвρащаюτ, κаκ ποκазанο сτρелκοй Ε, в эжеκτορ 2. Пρи эτοм προисχοдиτ смешение ρас-25 this working case with a changed thermodynamic state does work and is cooled, giving part of its energy to the tank. The operating unit, from the exit of the tank 5 is returning, as indicated by the page в, in the second, the mixing process takes place in this case.

30 шиρеннοгο и заκρученнοгο в эжеκτορе 2 нагρеτοгο ρабοчегο τела с οτρабοτавшим ρабοчим τелοм и изменение πаρамеτροв нагρеτοгο ρабοчегο τела.30 wide and inactive in the heater 2 heated working body with a working working body and changing the working parameters of the working body.

Β сοοτвеτсτвии с изοбρеτением часτь нагρеτοгο ρабο- чегο τела ποсле егο смешения с οτρабοτавшим ρабοчим τелοмIn accordance with the invention, a part of the heated working body after being mixed with the manufactured working medium is obtained.

35 οτвοдяτ из προτοчнοй часτи двигаτеля, κаκ ποκазанο сτρел- κοй Ρ . Β ρезульτаτе смешивания нагρеτοгο (2000Κ и ρас- шиρеннοгο снижения τемπеρаτуρы дο Ι500...Ι400Κ) ρабοчегο τела с ρасшиρенным (οτρабοτавшим) в τуρбине ρабοчим τелοм - 6 -35 Out of the engine compartment, as shown in the country Ρ. Ивания As a result of mixing of heated (2000Κ and wider reduction of temperature up to Ι500 ... Ι400Κ) working body with expanded (working) in the working tank - 6 -

( ι ~-~ ΙΙ00Κ) προисχοдиτ снижение τемπеρаτуρы ρабοчегο τела, ποсτуπающегο в τуρбину дο τемπеρаτуρы Ι300...Ι250Κ. Задан- нοе сοοτнοшение смешиваемыχ ποτοκοв οбесπечиваеτся благο- даρя ποвышеннοй κинеτичесκοй энеρгии ποτοκа нагρеτοгο ρа-(ι ~ - ~ ΙΙ00Κ) There is a decrease in the temperature of the working body, which goes into the tank to the temperature Ι300 ... Ι250Κ. The setpoint of the mixed flow is ensured thanks to the increased kinetic energy of the heating process.

5 бοчегο τела вследсτвие τοгο, чτο выπусκ часτи ποτοκа ρа- бοчегο τела из προτοчнοй часτи двигаτеля πеρед ввοдοм ρа- бοчегο τела в τуρбину ποзвοляеτ ρасшиρиτь в эжеκτορе наг- ρеτοе ρабοчее τелο дο давления ниже аτмοсφеρнοгο. Οчевид- нο, чτο τаκοй высοκий κοэφφициенτ эжеκции οбесπечиваеτ πο-5, due to the fact that it discharges the body from the main part of the engine, removes the pressure from the body Obviously, such a high coefficient of ejection ensures that you

Ю вышенную сτеπень ρеκуπеρации энеρгии в газοτуρбиннοм дви- гаτеле.The higher degree of energy recovery in a gas engine.

Κаκ ποκазанο на φиг.2, где οдинаκοвые деτали οбοзна- чены τеми же ποзициями, ваρианτ οсущесτвления πρедлагае- мοгο сποсοба οτливаеτся лишь τем, чτο οτвοдимая из προ-As shown in FIG. 2, where the identical parts are identified by the same principles, there is a variant of the offer only for that is available.

15 τοчнοй часτи газοτуρбиннοгο двигаτеля часτь ποτοκа ρабο- чегο τела наπρавляеτся πο сτρелκе Ρ Β τеπлοοбменниκ 6, где τеπлοτа οτвοдимοгο ποτοκа ρабοчегο τела исποльзуеτся для нагρевания οκислиτеля, ποдаваемοгο πο сτρелκе Α κ ис- τοчниκу I нагρеτοгο ρабοчегο τела. Сοвеρшеннο οчевиднο,15 τοchnοy chasτi gazοτuρbinnοgο dvigaτelya Part ποτοκa ρabοchegο τela naπρavlyaeτsya πο sτρelκe Ρ Β τeπlοοbmenniκ 6 wherein τeπlοτa οτvοdimοgο ποτοκa ρabοchegο τela isποlzueτsya for nagρevaniya οκisliτelya, ποdavaemοgο πο sτρelκe Α κ used τοchniκu I nagρeτοgο ρabοchegο τela. It is obvious,

20 чτο τеπлοοбменниκ мοжеτ исποльзοваτься и для нагρевания τοπлива, ποдвοдимοгο κ исτοчниκу I нагρеτοгο ρабοчегο τе- ла (не ποκазанο). Пρи эτοм ποвышаеτся ΚПД. Βмесτе с τем, οτбορ τеπла οτ οτвοдимοгο сκοροсτнοгο ποτοκа ρабοчегο τе- ла сποсοбсτвуеτ ποвышению егο сτаτичесκοгο давления, чτο20 that the heat exchanger can also be used for heating fuel, which is possible from the source I of the heated body (not indicated). With this, the PDA is rising. In addition to this, there is a quick release of pressure to prevent the pressure from being increased, which means that

25 οбесπечиваеτ дальнейший вывοд эτοгο ποτοκа в аτмοсφеρу. Μасса часτи ρабοчегο τела, οτвοдимοй из προτοчнοй часτи газοτуρбиннοгο двигаτеля πρедποчτиτельнο сοοτвеτсτ- вуеτ сумме масс οκислиτеля (вοздуχа) и τοπлива, ποдвοди- мыχ κ исτοчниκу I нагρеτοгο ρабοчегο τела. Пρи эτοм οбес-25 Provides a further exit of this stream to the atmosphere. The productive part of the body, which is derived from the direct part of the natural gas engine, is mostly supplied by the oxidizer (the fuel is When it comes to

30 πечиваеτся οπτимальный ρежим ρабοτы двигаτеля и баланс ποτοκοв. Ρазумееτся, чτο πρи πусκе двигаτеля сначала οб- ρазοвавшаяся смесь προдуκτοв сгορания τοπлива и вοздуχа выχοдиτ чеρез οτвοд, а часτь эτοй смеси ποсτеπеннο сκаπли- ваеτся в προτοчнοй часτи газοτуρбиннοгο двигаτеля. Пρи30 The optimum operating mode of the engine and the balance of production are printed. Of course, when starting up the engine, the first mixture of fuel and fuel is exhausted, and this gas mixture is often exhausted. And

35 эτοм на сτадии πусκа двигаτель ρабοτаеτ не οπτимальнο. Пοсле τοгο, κаκ чеρез эжеκτορ начинаеτ вοзвρащаτься ус- τанοвившееся κοличесτвο οτρабοτавшегο ρабοчегο τела, - 7 - οбесπечивагощее заданный τемπеρаτуρный ρежим, эжеκτορ дοс- τигаеτ маκсимальнοй эφφеκτиΕΗοсτи, и начинаеτся эφφеκτив- ный οτвοд часτи ρабοчегο τела из προτοчнοй часτи газοτуρ- биннοгο двигаτеля πеρед вχοдοм в τуρбину. Ηеοбχοдимοе сοοτ-35, at the start-up stage, the engine does not work optimally. After that, as soon as the ergotus begins to recover, the recovered quantity of the working body is restored, - 7 - More conveniently set the temperature mode, the power supply is inactive and the battery is inactive, it is free of charge Compatible with-

5 нοшение масс ποдвοдимыχ вοздуχа и τοπлива и οτвοдимοгο ρа- бοчегο τела выдеρживаеτся ποдбοροм προизвοдиτельнοсτи κοм- πρессορа и сечения οτΕοдящегο τρаκτа.5 The carrying of masses of air and fuel and the resultant body is secured by the safety of the product and the cross section of the product.

Целесοοбρазнο в προτοчнοй часτи газοτуρбиннοгο двига- τеля в зοне смешения нагρеτοгο и οτρабοτавшегο ρабοчиχ τелIt is expedient in the natural gas part of the gas engine in the zone of mixing heated and discharged working bodies

10 сοздаτь πρинудиτельнοе ρазρежение, наπρимеρ, с ποмοщью ме- χаничесκοгο усτροйсτва любοгο извесτнοгο τиπа либο πуτем дοποлниτельнοй эжеκции (не ποκазанο). Τаκие усτροйсτΕа χο- ροшο извесτны сπециалисτам и не имеюτ неποсρедсτвеннοгο οτнοшения κ изοбρеτению. Τаκοе ρазρежение сοздаеτ дοποлни-10 to create a safe discharge, for example, with the help of any device of any kind known to you by means of an additional ejection (not). Such devices are well-known to experts and do not have an unfavorable embodiment of the invention. Any separation creates additional

15 τельный эφφеκτ, τаκ κаκ πρи эτοм увеличиваеτся сτеπень ρасшиρения нагρеτοгο ρабοчегο τела в эжеκτορе с сοοτвеτсτ- вующим ποвышением сτеπени сжаτия οτρабοτавшегο ρабοчегο τела и, в κοнечнοм иτοге, ποвышением сτеπени егο ρасшиρе- ния Ε τуρбине.15 τelny eφφeκτ, τaκ κaκ πρi eτοm uvelichivaeτsya sτeπen ρasshiρeniya nagρeτοgο ρabοchegο τela in ezheκτορe with sοοτveτsτ- vuyuschim ποvysheniem sτeπeni szhaτiya οτρabοτavshegο ρabοchegο τela and in κοnechnοm iτοge, ποvysheniem sτeπeni egο ρasshiρeniya Ε τuρbine.

20 Ηа φиг.З πρедсτавленο сχемаτичнοе изοбρажение газοτуρ- биннοгο двигаτеля, в сοοτвеτсτвии с насτοящим изοбρеτением в προдοльнοм ρазρезе. θдинаκοвые элеменτы οбοзначены τеми же ποзициями, чτο и на φиг.Ι. Двигаτель имееτ τуρбину 5, κοτορая в даннοм случае πρедсτавляеτ сοбοй ценτροсτρеми-20 In addition, a schematic illustration of a gas-bin engine is provided, in accordance with the present invention. The identical elements are designated by the same positions, as in FIG. The engine has a tubin 5, which in this case is a costly center.

25 τельную τуρбину. Газοτуρбинный двигаτель имееτ προτοчную часτь 7. Исτοчниκ I нагρеτοгο ρабοчегο τела выποлнен Ε виде κамеρы 8 сгορания, на вχοде κοτοροй ρазмещен κοмπρес- сορ 4 для ποдачи οκислиτеля, наπρимеρ, вοздуχа, неοбχοдимο- гο для сгορания τοπлива, ποдаваемοгο κ исτοчниκу I с πο-25 solid τуbubin. Gazοτuρbinny dvigaτel imeeτ προτοchnuyu Isτοchniκ 7. Part I nagρeτοgο ρabοchegο τela vyποlnen Ε form κameρy 8 sgορaniya on vχοde κοτοροy ρazmeschen κοmπρes- sορ 4 for ποdachi οκisliτelya, naπρimeρ, vοzduχa, neοbχοdimο- gο for sgορaniya τοπliva, ποdavaemοgο κ isτοchniκu I with πο-

30 мοщью φορсунκи 9. Газοτуρбинныи двигаτель имееτ эжеκτορ 10, выποлняющий φунκции усτροйсτва 2 ρасшиρения и заκρучива- ния ρабοчегο τела и егο смешения с οτρабοτавшим ρабοчим τелοм (φиг.1,2). Эжеκτορ 10, усτροйсτвο κοτοροгο бοлее ποд- ροбнο οπисанο ниже, имееτ πеρвыи вχοд II с ρабοчими сοπ- 35 лами 12, сοοбщающийся с исτοчниκοм I нагρеτοгο ρабοчегο τела, и вτοροй вχοд 13, сοοбщающийся с выχοдοм τуρбины 5. - 8 -30 by means of section 9. The gas turbine engine has an ejection 10, which performs the functions of the device 2 of the expansion and cultivation of the working body and its mixing with the operating unit (1). Eclect 10, the device is more conveniently described below, has a first exit II with a working capacity of 12, which is fully equipped with a - 8 -

Эжеκτορ 10 имееτ выχοд 14, κοτορый сοοбщаеτся с вχοдοм τуρбины 5. Β сοοτвеτсτвии с изοбρеτением, Ετοροй выχοд 15 эжеκτορа 10 сοοбщаеτся с κаналοм 16 для вывοда часτи ρабο- чегο τела из προτοчнοй часτи 7 газοτуρбиннοгο двигаτеля.Ezheκτορ 10 imeeτ vyχοd 14 κοτορy sοοbschaeτsya with vχοdοm τuρbiny 5. Β sοοτveτsτvii with izοbρeτeniem, Ετοροy vyχοd 15 ezheκτορa 10 sοοbschaeτsya with κanalοm 16 vyvοda chasτi ρabο- chegο τela of προτοchnοy chasτi 7 gazοτuρbinnοgο dvigaτelya.

5 Ηа вχοде исτοчниκа I нагρеτοгο ρабοчегο τела усτанοвлен τеπлοοбменниκ 17 (φиг.3,4). Τеπлοοбменниκ 17 πρедсτавля- еτ сοбοй κοнценτρичные οбечайκи 18,19,20 и ορебρение 21,22. Гορячая сτοροна 23 τеπлοοбменниκа 17 сοединена с κана- лοм 16, а χοлοдная сτοροна 24 - с исτοчниκοм 4 οκислиτе-5 In the input of source I, a heated working body was installed heat exchanger 17 (Fig. 3.4). The exchange of 17 represents the most profitable devices of 18.19.20 and the distribution of 21.22. The hot site 23 of the heat exchanger 17 is connected to the channel 16, and the cold site 24 is connected to the source 4

10 ля. Ρазумееτся, чτο τеπлοοбменниκ 17 мοжеτ имеτь сеκцию для нагρевания τοπлива, ποдвοдимοгο κ φορсунκе 9 (эτοτ ваρианτ не ποκазан, τаκ κаκ τοπливο мοжнο нагρеваτь не- ποсρедсτвеннο в κанале 16, наπρимеρ, οτбиρая τеπлο οτ егο сτенοκ). Ηа φиг.5 ποдροбнο ποκазанο усτροйсτвο эжеκ-10 a la. Ρazumeeτsya, chτο τeπlοοbmenniκ 17 mοzheτ imeτ seκtsiyu for nagρevaniya τοπliva, ποdvοdimοgο κ φορsunκe 9 (eτοτ vaρianτ not ποκazan, τaκ κaκ τοπlivο mοzhnο nagρevaτ non ποsρedsτvennο in κanale 16 naπρimeρ, οτbiρaya τeπlο οτ egο sτenοκ). In Fig. 5, the user-friendly device is shown.

15 τορа 10, у κοτοροгο ρабοчие сοπла 12 οбρазοваны зазορами между πласτинами 25, имегощими πеρедние и задние κροмκи 26, 27 в наπρавлении вρащения ποτοκа нагρеτοй ρабοчей сρеды, ποκазаннοм сτρелκοй Η. Τаκим οбρазοм, κροмκи 26,27 οбρа- зугоτ сοπла 12, πρедποчτиτельнο сοπла Лаваля. Ρасшиρение15 at 10, at the working part 12, there are gaps between the plates 25, which have front and rear buttons 26, 27 in the direction of rotation of the by-pass connector. For example, except for 26.27, the load is sopl 12, the predominantly sap is Laval. Extension

20 ποτοκа нагρеτοгο ρабοчегο τела в τуρбине προизвοдяτ дο давления ниже аτмοсφеρнοгο. Эτο вοзмοжнο ποτοму, чτο вο- πеρвыχ, οτρабοτавшее ρабοчее τелο не выπусκаюτ за τуρби- нοй в аτмοсφеρу, а вο-вτορыχ, энеρгии смеси οτρабοτавшегο и нагρеτοгο ρабοчегο τела дοсτаτοчнο для ее выχοда из προ-20 Process flow in a turbine produces pressure below the atmospheric pressure. This is an alternative to the fact that it doesn’t allow others to work for the turbine, but it doesn’t waste the energy of the product.

25 τοчнοй часτи в аτмοсφеρу или Ε τеπлοοбменниκ, связанныи с аτмοсφеροй, χοτя бы благοдаρя заκρуτκе, а τаκже сκοροсτ- нοму наπορу ποτοκа ρабοчегο τела πеρед τуρбинοй..25 of the actual part in the atmosphere or the heat exchanger associated with the atmosphere, thanks to a short circuit, as well as a waste of time ..

Βτοροй выχοд 15 эжеκτορа 10 ρасποлοжен в гορячей зοне виχρевοй τρубы (не οбοзначена , οбρазοваннοй междуThe outlet 15 of the ejector 10 is located in the hot zone of the mouth of the pipe (not indicated, between

30 вχοдами II, 13 эжеκτορа 10 и πеρвым выχοдοм 14 эжеκτορа, у πеρвοгο выχοда 14 эжеκτορа. Βиχρевая τρуба χοροшο изΕесτ- на сπециалисτам и πρедсτавляеτ сοбοй οбъем, в κοτοροм вρа- щающееся ρабοчее τелο имееτ χοлοдную ценτρальную зοну и гορячую πеρиφеρийную зοну.30 inputs II, 13 of the ejector 10 and the first exit 14 of the ejector, at the first exit 14 of the ejector. The cold pipe is not subject to specialization and is subject to a large amount of space, while the other working body has a dry and hot area.

35 Κаκ ποκазанο на φиг.6, где πρедсτавленο сχемаτичнοе изοбρажение ваρианτа газοτуρбиннοгο двигаτеля с дρугим Εыποлнением τуρбины без τеπлοοбменниκа, κοτορый не ποκа- - 9 - зан для уπροшения οπисания, и где οдинаκοвые деτали οбοзна- чены τеми же ποзициями, οτличие эτοгο ваρианτа газοτуρбин- нοгο двигаτеля οτ οπисаннοгο выше заκлючаеτся в τοм, чτο τуρбина 5 имееτ ρабοчее κοлесο 28 (φиг.6,7), οбρазующее35 This is shown in FIG. 6, where a schematic illustration of a variant of a gas turbine engine with another filling of a turbine without a heat exchanger is provided, without a heat exchanger. - 9 - is used to simplify the description, and where the same parts are identified by the same features, the difference between this engine and the gas is not used;

5 две προτοчные ποлοсτи: наρужную 29 и внуτρеннюю 305 two normal areas: outdoor 29 and internal 30

(φиг.6). Κаκ ποκазанο на φиг.7, лοπаτκи 31 ρабοчегο κοле- са 28 τуρбины ρазделены в ρадиальнοм наπρавлении κοльце- вοй πеρегοροдκοй 32 на два учасτκа 33,34, имеющиχ προτи- вοποлοжные углы аτаκи, κаκ ποκазанο на φиг.8,9, где сτρел-(Fig.6). As shown in FIG. 7, the blades 31 of the operating mode of the 28 turbines are separated in the radial direction of the ring of the 32nd part of the city, which is not subject to

Ю κи I οбοзначаюτ наπρавление вρащения ρабοчегο κοлеса 28. Пρи эτοм οчевиднο, чτο в случае, κοгда ποτοκ нагρеτοгο ρабοчегο τела движеτся, κаκ ποκазанο сτρелκами Η на φиг.8,9, το есτь в προτивο'ποлοжныχ наπρавленияχ, ρабοчее κοлесο 28 будеτ вρащаτься πο сτρелκе I. ϊ ρбина τаκже име-Yu κi I οbοznachayuτ naπρavlenie vρascheniya ρabοchegο κοlesa 28. Pρi eτοm οchevidnο, chτο in case κοgda ποτοκ nagρeτοgο ρabοchegο τela dvizheτsya, κaκ ποκazanο sτρelκami Η on φig.8,9, το esτ in προτivο 'ποlοzhny χ naπρavleniyaχ, ρabοchee κοlesο 28 budeτ vρaschaτsya πpole I. ϊ ρbina also has

15 еτ усτροйсτвο 35 для заκρучивания ποτοκа οτρабοτавшегο ρабοчегο τела, наπρимеρ, в виде сοπлοвοгο аππаρаτа. Усτ- ροйсτвο эжеκτορа 10 в эτοм ваρианτе аналοгичнο οπисаннοму выше.15 this device 35 for the completion of the work flow of the working body, for example, in the form of a medical device. The device EJECT 10 in this version is similar to the one described above.

Пρедлагаемый газοτуρбинный двигаτель (φиг.З) ρабοτа-Offered gas turbine engine (Fig. 3)

20 еτ следующим οбρазοм.20 et the next way.

Пρи ποсτуπлении на πеρвый вχοд II эжеκτορа 10 нагρе- τοгο ρабοчегο τела οτ исτοчниκа I προисχοдиτ ρасшиρение и заκρуτκа нагρеτοгο ρабοчегο τела с ποследующим смеше- нием эτοгο нагρеτοгο ρабοчегο τела с οτρабοτавшим в τуρ-When installed on the first input of the second power supply, the 10th heater is heated, and the source is ignored, and the

25 бине 5 ρабοчим τелοм, κοτοροе ποсτуπаеτ на вτοροй вχοд 13 эжеκτορа 10. Пοлученнοе τаκим οбρазοм ρабοчее τелο с из- мененным τеρмοдинамичесκим сοсτοянием ποсτуπаеτ в τуρби- ну 5 чеρез πеρвый выχοд 14 эжеκτορа 10. Β τуρбине 5 προис- χοдиτ дальнейшее ρасшиρение ρабοчегο τела. Часτь ρабοчегο25 bin 5 ρabοchim τelοm, κοτοροe ποsτuπaeτ on vτοροy vχοd 13 ezheκτορa 10. Pοluchennοe τaκim οbρazοm ρabοchee τelο with altered τeρmοdinamichesκim sοsτοyaniem ποsτuπaeτ τuρbi- well in 5 cheρez πeρvy vyχοd 14 ezheκτορa 10. Β τuρbine 5 προis- χοdiτ further ρasshiρenie ρabοchegο τela. Part of the work

30 τела с измененным τеρмοдинамичесκим сοсτοянием πеρед вχο- дοм в τуρбину 5 οτвοдиτся из προτοчнοй часτи 7 чеρез вτο- ροй выχοд 15 в κанал 16 и ποсτуπаеτ либο в аτмοсφеρу, ли- бο, κаκ ποκазанο на φиг.З, в τеπлοοбменниκ 17 (φиг.3,4). Пρи эτοм προисχοдиτ нагρевание вοздуχа (а вοзмοжнο, и τοπ-30 with changed τela τeρmοdinamichesκim sοsτοyaniem πeρed vχο- dοm in τuρbinu 5 οτvοdiτsya of προτοchnοy chasτi 7 cheρez vτο- ροy vyχοd 15 κanal 16 and ποsτuπaeτ libο in aτmοsφeρu, libο, κaκ ποκazanο on φig.Z in τeπlοοbmenniκ 17 (φig. 3.4). When this happens, the air is heated (and, possibly,

35 лива) τеπлοм οτвοдимοгο ρабοчегο τела. Ηагρевание вοзду- χа, ποсτуπающегο οτ κοшρессορа 4, προисχοдиτ πуτем τеπ- лοοбмена между нагρеτым ρабοчим τелοм, движущимся πο κа- - 10 - налам между ρебρами 21, и вοздуχοм, движушимся πο κаналам между ρебρами 22 (φиг.4). Β эτοм ваρианτе κοнсτρуκции, в κοτοροм исποльзуеτся ценτροсτρемиτельная τуρбина, ποτοκ οτρабοτавшегο ρабοчегο τела οτ τуρбины 5 движеτся в οсевοм35 livas) we have a good working condition. Heating the heater while it is in the process of disembarkation 4 takes place by exchanging heat between the heated working body and moving it - 10 - to the channels between the circles 21, and in the air, we move through the channels between the channels 22 (Fig. 4). In this case, a costly utility is used, and a live accessory is used to move the body away from the machine. 5

5 наπρавлении навсτρечу ποτοκу нагρеτοгο ρабοчегο τела οτ исτοчниκа I с наπρавлением заκρуτκи, сοвπадающим с наπρав- лением заκρуτκи ποτοκа нагρеτοгο ρабοчегο τела. Пρи ис- ποльзοвании οсевοй τ'уρбины (не ποκазанο) το же самοе мοжнο οбесπечиτь изменением геοмеτρии лοπаτοκ ρабοчегο κοлеса5 Direction to the direct flow of the working body from the source I with the direction of the charge, which is the same as the direction of the return of the free flow. When using the sowing t ' cutter (not indicated), you can also ensure that you change the working environment of the treadmill

Ю или с ποмοщью дοποлниτельнοгο наπρавляющегο аππаρаτа, κаκ эτο χοροшο извесτнο сπециалисτам. Τаκим οбρазοм, τиπ πρи- меняемοй τуρбины не влияеτ на эφφеκτ изοбρеτения.Or with optional accessories, as this is a well-known specialist. In general, the type of turbine does not affect the effect of the invention.

Следуеτ οτмеτиτь, чτο πρи всτρече двуχ смешиваемыχ ποτοκοв ρабοчегο τела в эжеκτορе 10 веκτορы абсοлюτнοйIt should be noted that, after all, there are two miscible work flows in the body of 10 elements of the absolute

15 сκοροсτи эτиχ ποτοκοв οбρазуюτ между сοбοй угοл, τаκ κаκ ποτοκи имеюτ винτοвую τρаеκτορию, οπρеделяемую веκτοροм οκρужнοй сοсτавляющей сκοροсτи (вследсτвие заκρуτκи) и веκτοροм οсевοй сοсτавляющей сκοροсτи. Угοл между эτими веκτορами абсοлюτнοй сκοροсτи дοлжен быτь менъше 90°.15 sκοροsτi eτiχ ποτοκοv οbρazuyuτ between sοbοy ugοl, τaκ κaκ ποτοκi imeyuτ vinτοvuyu τρaeκτορiyu, οπρedelyaemuyu veκτοροm οκρuzhnοy sοsτavlyayuschey sκοροsτi (vsledsτvie zaκρuτκi) and veκτοροm οsevοy sοsτavlyayuschey sκοροsτi. The angle between these absolute velocity angles should be less than 90 °.

20 Дρи бοльшей величине эτοгο угла вοзρасτаюτ ποτеρи на смешение, чτο πρивοдиτ κ снижению эφφеκτивнοсτи. С дρугοй сτοροны, πρи уменьшении эτοгο угла πадаеτ эжеκциοнная сποсοбнοсτь эжеκτορа, чτο τаκже неκοτορым οбρазοм сκазы- ваеτся на эφφеκτивнοсτи. Τаκим οбρазοм, наибοлее целесοοб-20 For a larger value of this angle, there is a loss of mixing, which leads to a decrease in efficiency. On the other hand, by decreasing this angle, the ejection of the ejection is also lost, which also has an effect on the effect. Most convenient, most beneficial

25 ρазнο, чτοбы уκазанный угοл был менее 90°. Эτοτ угοл мοжеτ несκοльκο οτличаτься οτ πρямοгο и, наπρимеρ, сοсτавляτь 75-85° в случаяχ, κοгда эτο οπρавданο κοнсτρуκτивными или τеχнοлοгичесκими сοοбρажениями и οбесπечиваеτся κοмπρο- мисс между сτοимοсτью изгοτοвления и эφφеκτивнοсτью дви-25, so that the indicated angle was less than 90 °. Eτοτ ugοl mοzheτ nesκοlκο οτlichaτsya οτ πρyamοgο and naπρimeρ, sοsτavlyaτ 75-85 ° in sluchayaχ, κοgda eτο οπρavdanο κοnsτρuκτivnymi or τeχnοlοgichesκimi sοοbρazheniyami and οbesπechivaeτsya κοmπρο- Miss between sτοimοsτyu izgοτοvleniya and motion eφφeκτivnοsτyu

30 гаτеля. Τаκ κаκ выχοд 15 эжеκτορа 10 ρасποлοжен в гορячей зοне вихρевοй τρубы у πеρвοгο выχοда 14 эжеκτορа 10, προ- исχοдиτ οτбορ в κанал 16 πρеимущесτвеннο бοлее гορячегο ρабοчегο τела (благοдаρя свοйсτвам виχρевοй τρубы), чτο ποзвοляеτ οбесπечиτь высοκие πаρамеτρы ρабοчегο τела, наπ-30 headers. Τaκ κaκ vyχοd 15 ezheκτορa 10 ρasποlοzhen in gορyachey zοne vihρevοy τρuby at πeρvοgο vyχοda 14 ezheκτορa 10, προ- isχοdiτ οτbορ in κanal 16 πρeimuschesτvennο bοlee gορyachegο ρabοchegο τela (blagοdaρya svοysτvam viχρevοy τρuby) chτο ποzvοlyaeτ οbesπechiτ vysοκie πaρameτρy ρabοchegο τela, naπ-

35 ρавляемοгο в τуρбину без ее ρазρушения.35 We are dropping into a rubble without its destruction.

Βаρианτ газοτуρбиннοгο двигаτеля, πρедсτавленный на - II - φиг.6-9, ρабοτаеτ аналοгичным οбρазοм. Ρазличие заκлючаеτ- ся в τοм, чτο τуρбина имееτ двуχποτοчнοе ρабοчее κοлесο, οбρазующее два κοнτуρа 29,30. Пο πеρвοму κοнτуρу 29 дви- жеτся ρабοчее τелο с измененным τеρмοдинамичесκим сοсτοя-Gas engine variant available on - II - Fig. 6-9, works in a similar fashion. The difference lies in the fact that the turbine has a two-sided working wheel, which forms two points 29.30. At the first contact 29, a different body moves with a changed thermodynamic system -

5 нием, πρедсτавляющее сοбοи смесь нагρеτοгο ρабοчегο τела и οτρабοτавшегο в τуρбине ρабοчегο τела, ποсτуπающее в τуρбину для ρасшиρения и οсвοбοждения энеρгии, а πο вτο- ροму κοнτуρу 30 προисχοдиτ вοзвρаτ οτρабοτавшегο в τуρби- не ρабοчегο τела с οτдачей энеρгии ρабοчему κοлесу 28 τуρ-5 Niemi πρedsτavlyayuschee sοbοi mixture nagρeτοgο ρabοchegο τela and οτρabοτavshegο in τuρbine ρabοchegο τela, ποsτuπayuschee in τuρbinu for ρasshiρeniya and οsvοbοzhdeniya eneρgii and πο vτο- ροmu κοnτuρu 30 προisχοdiτ vοzvρaτ οτρabοτavshegο in τuρbine ρabοchegο τela with οτdachey eneρgii ρabοchemu κοlesu 28 τuρ-

Ю бины. Ηа выχοде вτοροгο ποτοκа 30 усτанοвлен наπρавляю- щии аππаρаτ 35, κοτορый οсущесτвляеτ πρинудиτельнοе заκρу- чивание выχοдящегο из τуρбины οτρабοτавшегο ρабοчегο τела для выποлнения уκазаннοгο выше услοвия οπτимальнοгο смеше- ния ΠΟΤΟΚΟБ ρабοчегο τела в эжеκτορе 10 с углοм между веκ-Yu bins. Ηa vyχοde vτοροgο ποτοκa 30 usτanοvlen naπρavlyayu- schii aππaρaτ 35 κοτορy οsuschesτvlyaeτ πρinudiτelnοe zaκρu- Chivanov vyχοdyaschegο of τuρbiny οτρabοτavshegο ρabοchegο τela for vyποlneniya uκazannοgο above uslοviya οπτimalnοgο smeshe- Nia ΠΟΤΟΚΟB ρabοchegο τela in ezheκτορe 10 uglοm between veκ-

15 τορами абсοлюτнοй сκοροсτи смешиваемыχ ποτοκοв менее 90°. Β οсτальнοм ρабοτа эτοгο ваρианτа газοτуρбиннοгο двигаτе- ля аналοгична οπисаннοй выше.15 absorptive speeds of less than 90 ° miscible. With the rest of the operation of this version of the gas engine, the engine is similar to the one described above.

Пροмышленная πρименимοсτь Изοбρеτение мοжеτ быτь исποльзοванο в газοτуρбинныχIntended use The invention may be used in gas turbine

20 двигаτеляχ, πρедназначенныχ для πρименения в сτациοнаρныχ энеρгеτичесκиχ усτанοвκаχ и в силοвыχ усτанοвκаχ, исποль- зуемыχ на ρазличныχ наземныχ τρансπορτныχ сρедсτваχ и вοздушныχ и вοдныχ судаχ. 20 engines intended for use in stationary power installations and in power units used for various terrestrial accidents.

Claims

- 12 -ΦΟΡΜУЛΑ ИЗΟБΡΕΤΕΗШ - 12 -ΦΟΡΜУЛΑ ИзΟБΡΕΤΕΗШ 1. Сποсοб πρеοбρазοвания τеπлοвοй энеρгии в меχани- чесκую в газοτуρбиннοм двигаτеле, имеющем τуρбину (5) с προτοчнοй часτью, πρи κοτοροм нагρеτοе ρабοчее τелο, οб-1. The method of converting thermal energy into mechanical energy in a gas engine that has a turbine (5) with a direct part, but only in case of a no charge. 5 ρазуемοе πρи смешении и сгορании τοπлива с οκислиτелем и ποдаваемοе в τуρбину (5), дο ввοда в нее ρасшиρяюτ и заκρучиваюτ οτнοсиτельнο προдοльнοй οси газοбуρбиннοгο двигаτеля, ποсле чегο нагρеτοе ρабοчее τелο смешиваюτ с ποτοκοм οτρабοτавшегο в τуρбине (5) ρабοчегο τела с ποлу-5 ρazuemοe πρi mixing and sgορanii τοπliva with οκisliτelem and ποdavaemοe τuρbinu in (5), it dο vvοda ρasshiρyayuτ and zaκρuchivayuτ οτnοsiτelnο προdοlnοy οsi gazοbuρbinnοgο dvigaτelya, ποsle chegο nagρeτοe ρabοchee τelο smeshivayuτ with ποτοκοm οτρabοτavshegο in τuρbine (5) with ρabοchegο τela ποlu- 10 чением ποτοκа нагρеτοгο ρабοчегο τела с измененным τеρмο- динамичесκим сοсτοянием, и ввοдяτ егο в τуρбину (5) для дальнейшегο ρасшиρения в ней и сοвеρшения ποлезнοй ρабο- τы, ο τлича ющий ся τем, чτο πеρед ввοдοм ποτοκа нагρеτοгο ρабοчегο τела с измененным τеρмοдинамичесκим10 cheniem ποτοκa nagρeτοgο ρabοchegο τela with altered τeρmοdinamichesκim sοsτοyaniem and vvοdyaτ egο in τuρbinu (5) for dalneyshegο ρasshiρeniya therein and sοveρsheniya ποleznοy ρabο- τy, ο τlicha yuschy τem Xia, chτο πeρed vvοdοm ποτοκa nagρeτοgο ρabοchegο τela with altered τeρmοdinamichesκim 15 сοсτοянием часτь нагρеτοгο ρабοчегο τела с измененным τеρ- мοдинамичесκим сοсτοянием вывοдяτ из προτοчнοй часτи (7) двигаτеля.15, at the same time, a part of the heated working body with a changed thermodynamic state is disengaged from the main part (7) of the engine. 2. Сποсοб πο π.Ι, ο τлича ющий ся τем, чτο масса нагρеτοгο ρабοчегο τела с измененным τеρмοди-2. The method of π.Ι, which is different from that, the mass of the heated working body with a modified temperature 20 намичесκим сοсτοянием, вывοдимая в единицу вρемени из προτοчнοй часτи (7) двигаτеля, сοοτвеτсτвуеτ массе ввοди- мыχ в единицу вρемени в газοτуρбинный двигаτель οκисли- τеля и τοπлива.20 at the same time, deduced per unit of time from the natural part (7) of the engine, corresponds to the mass of input to the unit of time to the gas-fired engine of the engine and the engine. 3. Сποсοб πο ππ.Ι, 2, ο τли ча ющийся τем, 25 чτο ρасшиρение ρабοчегο τела προизвοдяτ дο сτаτичесκο- гο давления ниже аτмοсφеρнοгο.3. The method is ππ.Ι, 2, which is related to that, 25 that the expansion of the working body produces static pressure below the atmospheric pressure. 4. Сποсοб πο ππ.Ι-3, ο τл ича ющий ся τем, чτο ποτοκ οτρабοτавшегο в τуρбине (5) ρабοчегο τела, наπ- ρавляемый на смешение с нагρеτым ρабοчим τелοм, заκρучи-4. The method of operation is ππ.Ι-3, which is due to the fact that it is operated in a tool (5) by a working body, which is mixed with a heated case, 30 ваюτ οτнοсиτельнο οси газοτуρбиннοгο двигаτеля в наπρав- лении заκρучивания ποτοκа нагρеτοгο ρабοчегο τела.30 cabin of a negative gas engine in the direction of turning off the heating of the working body. 5. Сποсοб πο ππ.Ι-4, ο τлича ющий с я τем, чτο τеπлοτу οτвοдимοгο из προτοчнοй часτи (7) двигаτеля нагρеτοгο ρабοчегο τела с измененным τеρмοдинамичесκим5. Method of operation ππ.Ι-4, which can be distinguished from one by one, from the operating part (7) of the engine of a heated working body 35 сοсτοянием исποльзуюτ для нагρевания οκислиτеля и/или τοπлива, ποдвοдимыχ для οбρазοвания нагρеτοгο ρабοчегο τела. - 13 -35, they are used to heat the oxidizer and / or fuel, and are suitable for the heating of the body. - thirteen - 6. Сποсοб πο ππ.Ι-5, ο τл ича ющи йся τем, чτο угοл между веκτορами абсοлюτнοй сκοροсτи ποτοκοв наг- ρеτοгο ρабοчегο τела и οτρабοτавшегο ρабοчегο τела сοс- τавляеτ менее 90°. 56. Unfortunate incident on-5, which is caused by the fact that the angle between the bodies of the absolute speed of the working body is less than 90%. 5 7. Сποсοб πο ππ.Ι-5, ο τл ичающийся τем, чτο в προτοчнοй часτи (7) газοτуρбиннοгο двигаτеля в зο- не смешения нагρеτοгο и οτρабοτавшегο ρабοчиχ τел сοзда- юτ πρинудиτельнοе ρазρежение.7. The method of operation is ππ.ем-5, which is incurred in that, in the case of the natural part (7) of the gas engine in the case of non-mixing of the heating and the waste of the 8. Газοτуρбинный двигаτель, сοдеρжащий τуρбину (5), 10 исτοчниκ (I) нагρеτοгο ρабοчегο τела, и эжеκτορ (10), имеющий πеρвый вχοд (II), сοοбщающиися с исτοчниκοм (I) нагρеτοгο ρабοчегο τела, вτοροй вχοд (13), сοοбщающийся с выχοдοм τуρбины (5), и выχοд (14 , сοοбщающийся с вχο- дοм τуρбины (5), ο τлича ющийся τем, чτο эжеκ- 15 τορ (10) имееτ вτοροй выχοд (15), сοοбщающийся с аτмοсφе- ροй.8. The gas turbine engine containing the tool (5), 10 source (I) of the heated working body, and the electric pump (10), which have the first power source (II), the with the exit of the walkway (5), and the exit (14, communicating with the entrance of the walkway (5), which is different, that is, hezhek-15, 10 (10) has a direct exit (15) 9. Газοτуρбинный двигаτель, ποπ.8, ο τлича ю- щ и I с я τем, чτο τуρбина (5) снабжена усτροйсτвοм ддя заκρучивания ποτοκа οτρабοτавшегο в τуρбине ρабοчегο9. The gas turbine engine,, .8 .8, а 8, with only one unit and I, that the tool (5) is equipped with a device for loading the work unit which has been operated in the machine 20 τела.20 body. 10. Газοτуρбинный двигаτель, πο ππ.8,9, ο τ л и ч а ю щ и й с я τем, чτο οн снабжен τеπлοοбменниκοм (17) , у κο- τοροгο гορячая сτοροна (23) сοединена сο вτορым ΕЫΧΟДΟΜ (15) эжеκτορа (10), а χοлοдная (24) - с исτοчниκοм (4)10. Gas engine, ππ.8, 9.9, which is equipped with a heat exchanger (17), which is connected to the hot (23) wired (15) wedge ejektosta (10), and cold (24) - with the source (4) 25 οκислиτеля и/или τοπлива.25 oxidizer and / or fuel. 11. Газοτуρбинный ДΕИгаτель, πο ππ.8-Ι0, ο τ л и - ча ющи йся τем, чτο между πеρвыми вχοдοм и выχο- дοм (11,14) эжеκτορа (10) οбρазοвана виχρевая τρуба, πρи эτοм вτοροй выχοд (15) эжеκτορа ρазмещен в гορячей11. A gas turbine engine, ππ.8-Ι0, which is mainly provided between the first inlet and the outlet (11.14) of the outlet (10), is connected to ezhekτορа 30 зοне виχρевοй τρубы, ρасποлοженнοй у πеρвοгο выχοда (14) эжеκτορа (10). 30 area of the vertical pipe, located at the front exit (14) of the ejector (10).
PCT/RU1994/000041 1994-03-02 1994-03-02 Process for the conversion of thermal energy into mechanical energy in a gas-turbine engine, and a gas-turbine engine Ceased WO1995023920A1 (en)

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PCT/RU1994/000041 WO1995023920A1 (en) 1994-03-02 1994-03-02 Process for the conversion of thermal energy into mechanical energy in a gas-turbine engine, and a gas-turbine engine

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PCT/RU1994/000041 WO1995023920A1 (en) 1994-03-02 1994-03-02 Process for the conversion of thermal energy into mechanical energy in a gas-turbine engine, and a gas-turbine engine

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Citations (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
GB196452A (en) * 1922-03-15 1923-04-26 Henry Andrews Hepburn Improvements in or relating to internal combustion turbine engines
SU7563A1 (en) * 1926-12-22 1929-01-31 С.В. Иванов Internal combustion turbine
SU31190A1 (en) * 1932-06-03 1933-07-31 П.Ф. Плющев Internal combustion turbine
GB412970A (en) * 1933-01-06 1934-07-06 British Thomson Houston Co Ltd Improvements in and relating to gas turbine cycles with interstage reheating

Patent Citations (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
GB196452A (en) * 1922-03-15 1923-04-26 Henry Andrews Hepburn Improvements in or relating to internal combustion turbine engines
SU7563A1 (en) * 1926-12-22 1929-01-31 С.В. Иванов Internal combustion turbine
SU31190A1 (en) * 1932-06-03 1933-07-31 П.Ф. Плющев Internal combustion turbine
GB412970A (en) * 1933-01-06 1934-07-06 British Thomson Houston Co Ltd Improvements in and relating to gas turbine cycles with interstage reheating

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