Postrekvizity: CAD processes.
ТТМ 3204 Thermodynamics and Heat Transfer in technological machines - 4 credits
Prerequisites:
mathematics,
physics,
computer
science,
chemistry.
Discipline
"Thermodynamics and Heat Engineering" to be read by students after studying the individual
sections (in order): higher mathematics (the derivative, differential, integral, variable,
differential equations); Physics (work, energy, thermal phenomena, molecular physics,
changes in states of matter, the laws of thermodynamics, mechanics, gas emission); chemistry
(chemical thermodynamics elements - thermodynamic equilibrium, the balance in the system,
chemical reactions, thermal effects); as well as computer technology and programming.
The purpose of the study: The purpose of discipline is mastering methods of obtaining,
converting the transfer and use of heat, which allows the operation of technological machinery
and equipment saving fuel and energy resources, intensification of technological processes,
identify and utilize waste energy, as well as to protect the environment from the presence of
contaminants
combustion.
Summary: In the discipline of study basic concepts and definitions of Thermal Technology.
The first and second law of thermodynamics. The thermodynamic processes of ideal gases.
Expiration, choking gases and vapors. Processes in vaporization P, V; T, S; and h, s - diagrams
steam. Thermodynamic cycles of heat engines and installations. Heat transfer. Thermal
conductivity. Convective heat transfer. Heat transfer in a forced and free movement of fluid.
Fundamentals of thermal design of heat exchangers.
Expected results:
know:
- Thermo-technical terminology, laws and obtain the conversion of thermal energy, methods of
using heat in modern thermal plants and industrial processes;
- Principles of economic operation of modern thermal power equipment;
- Modern methods of protecting the environment from pollution from combustion thermal
power equipment;
- Thermodynamic properties of real gases and vapors;
- Basic requirements for the rational and safe conduct of operation associated with the use of
heat engines.
be able to:
- Possess the calculated ratios of heat engineering skills and rational use of heat in thermal
processes;
- To carry out thermal calculations of heat exchangers;
- To solve the problem of effective operation of heating equipment with application of modern
methods of using heat;
- Experimentally determine the thermal characteristics of the thermal state of the elements of
machines and devices;
- Measurements of basic thermal parameters associated with the profile of engineering;
- Solve various application tasks associated with the operation of thermal calculations thermal
installations and heat engines.
Postrekvizity: oilfield equipment, underground hydraulics, development of oil and gas fields.
ТТU 3204.1 Heat engineering and heat engineering plants - 4 credits
Prerequisites: mathematics, physics, computer science, chemistry.
The purpose of the study: The aim of teaching is the assimilation of methods of obtaining,
converting the transfer and use of heat, which allows the operation of technological machinery
and equipment saving fuel and energy resources, intensification of technological processes,
identify and utilize waste energy, as well as to protect the environment from pollution fuel
combustion
products.
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Summary: In the discipline of study basic concepts and definitions of Thermal Technology.
The first and second law of thermodynamics. The thermodynamic processes of ideal gases.
Expiration, choking gases and vapors. Processes in vaporization P, V; T, S; and h, s - diagrams
steam. Thermodynamic cycles of heat engines and installations. Heat transfer. Thermal
conductivity. Convective heat transfer. Heat transfer in a forced and free movement of fluid.
Fundamentals of thermal design of heat exchangers. Fuel and fuel combustion. Boilers and
process heaters installed. Klacsifikatsiya scheme, the basic elements and workflow boiler
plants and industrial furnaces.
Expected results:
know:
- Thermo-technical terminology, laws and obtain the conversion of thermal energy, methods of
using heat in modern thermal plants and industrial processes;
- Principles of economic operation of modern thermal power equipment;
- Modern methods of protecting the environment from pollution from combustion thermal
power equipment;
- Thermodynamic properties of real gases and vapors;
- Basic requirements for the rational and safe conduct of operation associated with the use of
thermal and technological machines.
be able to:
- Possess the calculated ratios of heat engineering skills and rational use of heat in industrial
machines and thermal processes;
- To carry out thermal calculations of heat exchangers;
- To solve the problem of effective operation of heating and mechanical equipment with the
use of modern methods of using heat;
- Experimentally determine the thermal characteristics of the thermal state of the elements of
machines and devices of technological machinery and equipment;
- Measurements of basic thermal parameters associated with the profile of engineering;
- Solve various application tasks associated with the operation of thermal calculations thermal
installations and heat engines.
Postrekvizity: gas turbines, internal combustion engines, transport equipment and machinery,
mining machinery, drilling equipment, metallurgical processes and systems, maintenance of
pumping and compressor stations, oil depots, gas and oil pipelines.
MZSAPR 3205 Math problems in CAD - 3 credits
Prerequisites: mathematics, computer science.
The purpose of the study: students with theoretical knowledge and practical skills in the field
of mathematics applied in dealing with computer-aided design applications. Mastering the
skills of using the automated systems of mathematical calculations in engineering.
Summary: The problem of decision-making in CAD. Types of software and CAD
classification. The organization of technical means in CAD. designer interaction with
computers. Information CAD software. mathematical programming techniques in
technological machinery design tasks (TM). The finite element method in designing the
optimum structure of TM. Design of structures for special purposes. Numerical methods based
on optimality criteria. Design of dynamic mechanical systems. Optimal design of systems with
distributed parameters. Simulation in computer-aided design. Selection of CAD software
structure.
Typical
CAD
structure.
Expected results: as a result of the development of the discipline the student should:
know:
basic
concepts
of
computer-aided
design;
be able to: use mathematical methods to solve problems of computer-aided design; have
experience in the development of algorithms for the implementation of methods of
computational mathematics; have experience in using the tools of computer mathematics
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systems.
Postrekvizity: design of oil and gas machinery and equipment; calculation and design of
oilfield and drilling equipment.
MMPTM 3205.1 Mathematical methods of modeling and designing technological
machines - 3 credits
Prerequisites: Mathematics 1.2, computer science, physics, 1.2, descriptive geometry and
engineering graphics, engineering mechanics, the theory of mechanisms and machines,
strength of materials, design principles and machine parts, materials and construction materials
technology.
The purpose of the study: the acquisition of knowledge on the basic problems of mathematical
modeling of processes of designing technological machines, taking into account pslednih
achievements
in
engineering.
Summary: The general formulation of the design problem. Structural and parametric
description of the design object. Serial analysis of options in designing technological
machines. Algorithm of Sequential Analysis TM options. Decomposition and aggregation of
TM in the design tasks. Uncertainty in the design process of TM. Model TM operation.
Classification of mathematical models of technological machines. Requirements to
mathematical models. Methods for preparing the models. Mathematical model of technological
machines used in the micro and macro levels. Methods of optimal design theory of mechanical
systems and structures. Numerical methods for solving problems of optimal structural design
of technological machines. Mathematical methods of forecasting uptime and time
vsestanovleniya
created
by
technological
machines.
Expected results: As a result of studying the discipline, according to the qualification
requirements
of
the
specialization
student
must:
know: basic principles and techniques of mathematical modeling in the design and
construction of technological machines; methods to reduce weight and metaloemkosti design;
principles of modeling mathematical calculations of structural parameters of technological
machines;
be able to: design the assembly units and parts of machines; to solve the same type of design
problem
in
the
design
of
technological
machines.
Postrekvizity: technological processes of the oil and gas industry, installation and operation of
production machines, design of oil and gas machinery and equipment, calculation and design
of oilfield equipment.
DVS 3302 Internal combustion engines - 3 credits
Prerequisites: heating equipment, gas turbines, theoretical mechanics, strength of materials,
theory of machines and mechanisms of machine parts, descriptive geometry and engineering
graphics.
The purpose of the study: the study of the students characteristics of designs of internal
combustion engines used in the oil and gas industry, the theory of working processes, how
they work, basic concepts and definitions, technical and economic parameters, engine designs
systems,
rules
of
technical
operation,
maintenance
and
repair.
Summary: The study in the discipline of the internal combustion engine thermodynamic
cycles. The main technical and economic indices and the characteristics of the internal
combustion engine. Mixture formation in internal combustion engines. Workflows and the
basis for their calculation. compression process, combustion and expansion. Calculation of the
parameters of the working mixture in those processes. External heat balance of the internal
combustion engine. Construction ICE. ICE Fundamentals. Fuel equipment and ICE controls.
ICE systems: gas exchange systems, cooling, lubrication, supercharging and start the engine.
Engines running on gas. Control systems, control and protection of the internal combustion
engine. Technical operation of the internal combustion engine. ICE Technical diagnostics. The
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toxicity
of
the
combustion
products
and
the
environment.
Expected
results:
bachelor,
studied
discipline
must:
know: basic laws and equations of mixing processes, combustion, gas exchange and heat
transfer in reciprocating internal combustion engines; key performance indicators of the
engine; the impact of various factors on the working parameters of the process, including the
formation of toxic components in the exhaust gases; trends and prospects of development of
the
internal
combustion
engine;
be able: to calculate the engine operating condition, using calculation methods and
mathematical modeling of the actual cycle, and build characteristics of the engines.
Postrekvizity: machinery and equipment gas and oil pipelines, repair of technological
machines and equipment workover.
GPA 3302.1 Gas compressor units - 3 credits
Prerequisites: mathematics, physics, thermal engineering, hydraulics and hydraulic machines,
pipeline transportation of gas and oil.
The purpose of the study: to prepare students to solve practical problems related to the
calculation of basic parameters and operation of gas pumping units (GPU) used in the oil and
gas industry (especially at compressor stations of main gas pipelines).
Summary: in the discipline being studied and the main features of the current state of the
pipeline transport of natural gas. Operating modes and performance of gas compressor units at
compressor stations. Flow charts and wiring diagrams GPA at COP. Features properties and
aerodynamic flows in the GPA. Relationship CS gas pipeline and compressor unit. Used in gas
pro-industry types of centrifugal nagneateley. Designs and specifications TSBN natural gas.
shaft sealing systems TSBN. Methods for determination of the technical condition and power
consumption of SBS with energoprivodom (GTU).
Expected results: after the development of the discipline a student must: know: modes and
performance of the main gas pipelines of compressor stations, as energoprivoda used (GPA),
especially the use of SBS in the operation by the COP, the behavior of the capacity of the
pipeline during the year, centrifugal superchargers of natural gas structures and their
characteristics; SBS design schemes and characteristics of their working principle, purpose,
types, device and principle of operation; tasks and methods of the technical state of GPA in an
operational environment.
be able to: hold the calculated thermodynamic equations and the basic parameters of gas
pumping units with gas turbine drive in various modes; to carry out thermal calculations of gas
pumping units; to solve problems of the effective operation of gas turbines with the use of
modern techniques; determine the nature of change in capacity of the pipeline during the year,
the reasons for reducing the capacity and efficiency a gas turbine driven drive unit during
operation, the gas flow through the turbine when changing the operating parameters of the
body, the leakage of air in regenerators gas turbines. measurements of basic thermal
parameters associated with the profile of engineering; solving various applied problems related
to thermodynamic calculations in the operation of gas turbine plants.
Postrekvizity: gazoneftepromyslovoe equipment, development of oil and gas, transportation
and storage of gas compressor stations of main gas pipelines.
GTU 3302.2 Gas turbines - 3 credits
Prerequisites:
mathematics,
physics,
computer
science,
chemistry.
The purpose of the study: to prepare students to solve practical problems related to the
operation of gas turbine units (GTU), used in the oil and gas industry as well as compressor
stations
of
main
gas
pipelines.
Summary: The objective of the discipline is - introduction to construction and operation of
gas turbines of various schemes and styles, mastering the methods of their calculation
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parameters, skills, control of key parameters and operating modes of the unit carried out,
methods of diagnosis units with gas turbine drive. Operating modes and performance of the
main gas pipelines of compressor stations, circuit design and principles of operation of various
types of gas turbines and their characteristics, purpose, technical diagnostics methods in gas
turbines operating conditions, energy-saving technologies in the operation of gas turbines in
the oil and gas industry (compressor stations of the main gas pipelines).
Expected results: bachelor, studied discipline must:
know: modes and performance of the main gas pipelines of compressor stations, drilling rigs
for drilling oil and gas wells and energoprivoda (GTU), types enerogoprivoda compressor
stations and drilling rigs, especially the use of gas turbines for drilling oil and gas wells, the
behavior of the capacity of the gas pipeline during years, natural gas centrifugal blowers and
their design characteristics; concepts and GTP cycle, the concept of the gas turbine and the
basic thermodynamic characteristics of the simplest gas turbine plant with intermediate fuel
combustion at expansion, with intermediate air cooling during compression; GTU constructive
schemes and characteristics of their working principle, purpose, types, device and principle of
operation of the combustion chamber, the types of gas turbines of their construction,
characteristics, parameters used in the oil and gas industry; tasks and technical diagnostics
methods in operating conditions, ways and means of recovering the heat of exhaust gases to
the gas turbine compressor stations and oil rigs, recovery boiler circuit to produce steam or hot
water, electricity by using the heat of exhaust gases, lubrication and cooling systems GTU;
be able to: hold the calculated thermodynamic equations and the basic parameters of gas
pumping units with gas turbine drive in various modes; to carry out thermal calculations of gas
pumping units; to solve problems of the effective operation of gas turbines with the use of
modern techniques; determine the nature of change in capacity of the pipeline during the year,
the power gas turbines, the reasons for reducing the capacity and efficiency a gas turbine
driven drive unit during operation, the gas flow through the turbine when changing the
operating parameters of the body, the leakage of air in regenerators gas turbines.
measurements of basic thermal parameters associated with the profile of engineering; solving
various applied problems related to thermodynamic calculations in the operation of gas turbine
plants.
Postrekvizity: internal combustion engines, transport equipment and machinery, mining
machinery, drilling equipment, metallurgical processes and systems, field equipment, the
development of oil fields, underground hydraulics, maintenance of pumping and compressor
stations, oil depots, gas and oil pipelines.
TBNGS 3303 Technological processes of oil and gas - 2 credits
Prerequisites: higher mathematics, physics, strength of materials, hydraulics, fluid mechanics
in
drilling
oil
and
gas
business
fundamentals.
The purpose of the study: the assimilation of the students the essence of the methods of
drilling oil and gas wells on land and in the waters; development of methods of selecting
students build the drill string and mastering practical skills of its calculation for various
drilling methods; mastering the methods of breaking down a well cut into intervals of equal
drillability, the principles of rational choice of the type of drill bit and drilling parameters
mode;
mastering the methods of detection, prevention and liquidation of complications encountered
during the drilling of wells; mastering methods of drilling directional wells, control areas of
the trunk and the acquisition of practical skills in calculating their profiles; study of factors
contributing to the reduction of technical and economic indicators of well construction;
compliance with measures for occupational health and safety, protection of the environment in
the process of drilling wells.
Summary: In the discipline studied technological schemes of various drilling methods of oil
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and gas, and flow charts of various methods of oil and gas on land, depending on the type of
deposit. Organization of drilling oil wells and gas fields. The organization of oil and gas fields
in the Modern drilling methods. Fountain, gas lift pump and extraction technology. drilling
mode. The drill string. Acquisition and operation of the drill string. Drilling bush and
horizontally
branched
wells.
Complications in the process of drilling a well. The technology of oil and gas from several
reservoirs. Methods of treatment of the bottomhole zone. Investi--tion wells. Theoretical
Foundations of lifting of a liquid from the well. Methods to reduce the start-up pressure gas lift
valve. Operation SHSN.
Expected
results:
bachelor,
studied
discipline
must:
know: operation of oil reservoirs, ways of opening of productive horizons, methods of call
inflow and wells development, methods of stimulation, methods of treatment of the
bottomhole zone, methods of enhanced oil recovery and enhanced oil and gas equipment used
in a variety of ways oil and gases
be able to: own methods of calculating the basic parameters for different modes of operation
of deposits, select the method of opening productive horizon, calculate the perforation hole,
choose a method call inflows and wells development, be able to use a variety of charts, graphs
and tables in the selection of equipment, perform the calculation in choosing the method of
exposure to the bottom zone, calculate the required amount of reagents under the influence of
the CCD, to calculate the parameters of the process to maintain reservoir pressure, to make the
choice of equipment
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