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conferenceseries
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Volume 08
Research & Reviews: Journal of Engineering and Technology
ISSN: 2319-9873
Automobile Europe 2019
July 08-09, 2019
6
th
International Conference and Exhibition on
July 08-09, 2019 | Zurich, Switzerland
Automobile & Mechanical Engineering
Gas turbine jet engine (GTJE)
Lokotko A V
Institute of Theoretical and Applied Mechanics-SB RAS, Russia
G
as turbine engines (GTE) have a number of advantages over reciprocating internal combustion engines. They
have greater power density, full expansion of the working body (WB), greater resource due to balance and
minimization of friction surfaces, less consumption of lubricating fluids, low requirements for fuel quality regardless
of octane number, less time to prepare for launch. Meanwhile, GTE to yield the piston engines for fuel efficiency.
This is determined by the insufficiently high thermal efficiency the ratio of useful work to the heat consumed due
to the limiting temperature at the turbine inlet due to insufficient heat resistance of the turbine blades. To increase
thermal efficiency by increasing the temperature of the WB, the concept of a gas turbine jet engine was proposed.
This device is a Segner type wheel with a rotating combustion chamber (CC) and tangentially mounted nozzles.
Torque is created by the reaction force of the jets flowing from the nozzles. The absence of turbine blades allowed
increasing the temperature of the WB. The full expansion of the WB occurs in the system of rotors installed coaxially
with the CC, and also equipped with jet nozzles. The cooling of the CC and the nozzles is carried out by a liquid
metal coolant circulating due to centrifugal forces. Estimates show that at a WB temperature corresponding to the
combustion temperature of a stoichiometric air-fuel mixture, the thermal efficiency in the design mode is 0.47; the
specific fuel consumption is 0.25 kg/kWh, which is comparable with the corresponding figures for piston engines.
The device was protected by a Russian patent for an invention and a German patent for a utility model. It is assumed
that the engine can be used in hybrid vehicles to charge batteries. It requires the creation of a prototype engine for
the experimental study of its characteristic.
Biography
Lokotko A V has completed his Graduation at Tomsk Polytechnic University with a degree in Internal Combustion Engines in 1961. He worked in Kamchatka as
the Head of a Diesel Department at a power station from 1961-63. He has been working at the Institute of Theoretical and Applied Mechanics of the SB RAS
since 1965. In 1987, he defended his thesis, and in 2003 his doctoral dissertation. He has more than 140 publications in periodicals. He is a Specialist in Applied
Gas Dynamics and aerodynamically experimental methods.
lok@itam.nsc.ruLokotko A V, JET 2019, Volume 08