Bachelor courses
Speciality Code:
7M07119
Speciality Name:
Space Engineering and Technologies
Faculty:
Mechanics and Mathematics
Qualification:
- Scientific and pedagogical direction - Master of Engineering Sciences
- Model of graduating student
- Mandatory disciplines
- Elective disciplines
- Professional
1. ON1 interpret and summarize in-depth knowledge of current issues, development trends, and current areas reflecting the current state of space engineering and technologies, as well as being guided in defining the interdisciplinarity of tasks;
2. ON2 design satellite communications systems using GEO or LEO satellites to transmit voice, video or data signals using analog or digital modulation;
3. ON3 apply space technologies to observe the surface of the Earth to solve important problems of the economy, including problems of agriculture, ecology, defense, monitoring of emergency situations;
4. ON4 develop engineering software, including analysis, design, development, testing, and implementation;
5. ON5 understand the structure of robotic space systems and design robotic systems used to solve specific problems in the field of space engineering and technologies;
6. ON6 carry out calculations with the definition of the main parameters of the spacecraft onboard systems, as well as their analysis, using computer modeling methods and CAD tools;
7. ON7 apply in practical and professional activities methods of monitoring research and management of natural environments to address the rational use and protection of natural resources;
8. ON8 to determine the stages and principles of designing and testing space systems and subsystems using systems analysis methods, parameter estimation methods and optimization methods;
9. ON9 to critically evaluate ethical and professional responsibilities in engineering situations and apply sound decisions that should take into account the influence of engineering decisions in global, economic, environmental and social contexts;
10. ON10 analyze and manage the processes of the organization of education, aimed at improving the structure, quality, reputation based on modern management approaches;
11. ON11 critically evaluate life and professional situations from the point of view of management psychology; effectively use knowledge of management psychology for the development of their potential and team;
12. ON12 identify methods and techniques that are applicable to their own scientific research and modern scientific research, communicate their findings and knowledge used for their formulation, as well as the justification to specialists and non-specialists.
2. ON2 design satellite communications systems using GEO or LEO satellites to transmit voice, video or data signals using analog or digital modulation;
3. ON3 apply space technologies to observe the surface of the Earth to solve important problems of the economy, including problems of agriculture, ecology, defense, monitoring of emergency situations;
4. ON4 develop engineering software, including analysis, design, development, testing, and implementation;
5. ON5 understand the structure of robotic space systems and design robotic systems used to solve specific problems in the field of space engineering and technologies;
6. ON6 carry out calculations with the definition of the main parameters of the spacecraft onboard systems, as well as their analysis, using computer modeling methods and CAD tools;
7. ON7 apply in practical and professional activities methods of monitoring research and management of natural environments to address the rational use and protection of natural resources;
8. ON8 to determine the stages and principles of designing and testing space systems and subsystems using systems analysis methods, parameter estimation methods and optimization methods;
9. ON9 to critically evaluate ethical and professional responsibilities in engineering situations and apply sound decisions that should take into account the influence of engineering decisions in global, economic, environmental and social contexts;
10. ON10 analyze and manage the processes of the organization of education, aimed at improving the structure, quality, reputation based on modern management approaches;
11. ON11 critically evaluate life and professional situations from the point of view of management psychology; effectively use knowledge of management psychology for the development of their potential and team;
12. ON12 identify methods and techniques that are applicable to their own scientific research and modern scientific research, communicate their findings and knowledge used for their formulation, as well as the justification to specialists and non-specialists.
-
Psychology of management
- Number of credits: 3
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose: to form the ability to explain fundamental concepts of management psychology, to identify the prerequisites for theoretical, practical application of aspects of management sphere in professional formation. Discipline forms an understanding of modern ideas about psychology of managing group phenomena and processes, is aimed at studying the principles of management psychology, personality in managerial interactions, personal behavior management.
-
History and Philosophy of Science
- Number of credits: 3
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: Purpose: to form the ability to compare and generalize modern scientific discoveries taken in historical dynamics and considered in a historically changing socio-cultural context. Discipline forms inderstanding of development and structure of science, her role in development of society; is aimed at studying: the history, philosophy of science, the methodology of natural science, sociological, humanitarian, technical knowledge.
-
Foreign Language (professional)
- Number of credits: 5
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose: to form the ability to speak a foreign language for active use of a foreign language in everyday and professional communication. Discipline forms communicative, linguistic, cultural and interpersonal competencies; is aimed at studying: the main features of scientific and business style of speech and writing a resume, business letter, report, essay in a foreign language.
-
Space technologies for Earth observation
- Number of credits: 5
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the course is to understand the principles of using space technologies for solving the problems of the state economy; The study of space technologies for observing the Earth's surface. As a result of studying the discipline, the master student will be able to: - evaluate methodological approaches in the field of space technology; - carry out a critical analysis and, if necessary, propose new hypotheses; - demonstrate knowledge of the fundamentals of geoinformatics, GIS technologies, - describe the subsystems of geoinformation systems; - systematize knowledge in the field of application of modern packages of applied programs for solving problems in the field of space technologies with the help of computer technology. When studying the discipline, the following issues will be considered: principles of building a system for remote sensing of the Earth, space systems for remote sensing of the Earth, preliminary processing of digital space images, thematic processing of digital space images.
-
Pedagogy of higher education
- Number of credits: 5
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: Purpose: form ability to master the basics of professional, pedagogical culture of higher school teacher. Discipline forms understanding and application of modern technologies of analysis, planning, organization of training, education, technologies of subject-subject interaction of teacher and student in the educational process, is aimed at studying: the system of higher professional education in Kazakhstan, the methodology of pedagogical science, didactics, the theory of scientific activity.
-
Software Development for Engineering Applications
- Number of credits: 5
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the discipline: to form the skills of engineering software development, including analysis, design, development, testing and implementation. As a result of studying the discipline, the master student will be able to: - demonstrate knowledge of software engineering development, software reengineering and maintenance; - apply the principles of object orientation, including specifications of requirements, analysis and design of object orientation; - apply logic and discrete mathematics to determine the elements of software; - apply the tools and methods for developing application software solutions from problem specification; - design and plan software solutions to problems using object-oriented strategy; - develop and apply testing strategies for software applications. When studying the discipline, the following issues will be considered: process and methodology, planning project management, architecture and design, implementation, testing, software quality, deployment and maintenance, re-engineering.
-
Robotic space systems
- Number of credits: 5
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the discipline is to equip master students with the basic elements and structure of robotic space systems, used to solve specific problems in the domain. As a result of studying the discipline, the master student will be able to: - describe the methodological foundations of robotic space systems; - еxplain the organizational and technical foundations of robotic space systems and their individual elements; - use all the material you have covered in practice; - describe the types and principles of the operation of robotic space systems; - use modern information technologies to search for information and expand their knowledge, as well as for modeling and research of mechatronic and robotic systems; - analyze scientific and technical information, to generalize domestic and foreign experience in the field of mechatronics and robotics, automation and management tools, to conduct a patent search. When studying the discipline, the following issues will be considered: the basics of robotic space systems and their principles for studying outer space. Modeling and research of mechatronic and robotic systems. Modern mechatronic and robotic systems control methods. Information systems of mobile robots and mechatronic systems. Design and production of mechatronic and robotic systems. Scientific methods of research of mechatronic and robotic systems.
-
Modern principles of satellite communication
- Number of credits: 5
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of disciplines: the course gives master students a wide range of diverse subsystems that provide a complete satellite communications system. As a result of studying the discipline, the master student will be able to: - determine the orbital parameters of a satellite; - determine the azimuth and elevation angles and visibility of a geostationary satellite from an earth station; - create link budgets for an uplink and a downlink, and determine carrier to noise ratio (C/N) at an earth terminal receiver; - calculate the baseband signal-to-noise ratio or bit error rate for a satellite link; - design a communications satellite system to meet specified objectives for signal to noise ratio (S/N) in an analog baseband or BER in a digital link using appropriate multiple access techniques; - determine the BER improvement obtained with various ARQ and FEC coding techniques; - determine the effect of rain attenuation in a satellite link and the availability of the link based on the geographic location of the earth terminals; - determine the type and dimensions of antennas for use on satellites and at earth stations; - design satellite communication systems using GEO or LEO satellites to carry voice, video, or data signals using analog or digital modulation. When studying the discipline, the following issues will be considered: Satellite orbits and launching procedures, look angles; Spacecraft: power, communications, TT&C, antenna systems; Link budgets, C/N calculation; Analog modulation techniques, S/N calculation; Digital modulation, transmission, BER calculation; Multiple access techniques: FDMA, TDMA, CDMA, RA; Coding and error control; Propagation effects; Case studies: DBS-TV, GPS, LEO and VSAT networks
-
Modern problems of space flight dynamics
- Number of credits: 5
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the discipline is familiarization with modern problems of space flight dynamics; the acquisition of skills to build mathematical models of space flight dynamics and their analysis using the methods and means of modern mathematics. Development abilities of future specialists for scientific generalizations and conclusions. As a result of studying the discipline, the master student will be able to: - demonstrate knowledge of the basic models of modern problems of space flight dynamics; - correctly formulate problems in terms of space flight dynamics; - solve the problems of space flight dynamics; - develop mechanical and mathematical models that adequately reflect the basic properties of space flight dynamics; - demonstrate skills in the practical application of modern methods of space flight dynamics in solving problems. When studying the discipline, the following questions will be considered: The current state of space flight dynamics. Scientific problems of space flight dynamics, which are key and are of direct interest to the economy of Kazakhstan. Mathematical modeling of outer space. Forces acting on spacecraft. Translational motion of the spacecraft. Kepler problem. Parameters and elements of the orbit. Types of orbit. Kepler equations. Lambert formulas. The perturbed motion of the spacecraft. Osculating orbits. Rotational motion of the spacecraft. Calculation of the trajectories of interplanetary spacecraft. Maneuvers of the spacecraft orbital transition. Descent of the spacecraft from the satellite orbit.
-
Master’s dissertation preparation and defense (MDPaD)
- Number of credits: 12
- Type of control: Master Dissertation
- Description: The main purpose of "The implementation of a Master Thesis": the formation of master students in preparation for the defense of the thesis for the Master in specialty (by industry). During the study of course, master student's should be competent in: 1. demonstrate the progress of solving problems arising in the course of research activities and requiring in-depth professional knowledge; 2. to argue for carrying out theoretical or experimental research within the framework of the tasks, including a mathematical (simulation) experiment; 3. can choose the necessary research methods, modify existing methods and develop new methods, based on the tasks of the specific study; 4. to use foreign languages for independent work on normative sources and scientific literature; 5. formulate the goals and objectives of the dissertation research, determine the scientific novelty and practical significance of the results of research activities; to develop a structurally methodological scheme for performing research.
-
Modeling the operating conditions of spacecraft systems
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the course: the formation of knowledge of master students on the operating conditions of spacecraft. Upon successful completion of this discipline, master students should be able to: - describe the main stages of the design and development of spacecraft; - characterize the factors of space flight that affect the state and performance of the structure, equipment and instruments of the spacecraft; - interpret various methods of static and vibration tests of spacecraft; - create imitation models of gas-dynamic tests and tests for the impact of acoustic loads; - conduct experiments on the installations of the influence of solar radiation and radiation of planets on the thermal state of the spacecraft, vacuum-temperature tests of spacecraft, non-vacuum tests of hermetic compartments, tests of propulsion systems of spacecraft. Studying the course offers master students the necessary knowledge about the content of the methodological basis for the operation of space assets, as well as the acquisition of practical skills and abilities to solve scientific and practical tasks related to the implementation and improvement of modern organizational, technical, technological and technical and economic methods to ensure the effective provision of technical space exploitation.
-
Monitoring and management of nature resources
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the discipline is to obtain theoretical knowledge and practical skills in the management of natural resources and the organization of monitoring work. Study of tools and methods for monitoring components of the biosphere. As a result of studying the discipline, the master student will be able to: - demonstrate knowledge on monitoring and management of natural resources for the development of land management projects and work with particularly valuable lands; - solve the problems of sectoral disunity and methods of inventory of the address binding of natural objects; - application in practical and professional activities of methods of monitoring research and management of natural environments to address issues of rational use and protection of natural resources; - conduct processing and analysis of satellite data for the management of natural resources; - monitor the ecological state of industrial regions based on the results of space imagery. When studying the discipline, the following issues will be considered: tasks, purpose, content and principles of management and monitoring of natural resources. Monitoring and management of various natural environments to address issues of rational use and protection of natural resources.
-
Modern technologies of satellite navigation
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the discipline is to form knowledge among master students about modern methods and means of satellite navigation systems for moving objects and spacecrafts. Upon successful completion of this discipline, master students will be able to: - demonstrate knowledge of the algorithms, technologies and means of modern navigation systems; - formulate the principles of operation of modern satellite navigation systems; - analyze the current state and prospects for the development of satellite navigation systems; - select and apply in practice modern methods and means of navigation of moving objects; - apply modern methods of designing satellite navigation systems in practice; - synthesize the necessary algorithms and software for navigation problems. In this course, master sudents study modern satellite navigation systems, their means of implementation, the principles of operation and interconnections, the theoretical foundations of their design.
-
CAD tools for design of systems on chips
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the discipline is to present industrial CAD tools (Computer Assisted Design) for the design of analog, mixed and digital integrated circuits and systems and the corresponding methodology for design, simulation and verification of integrated circuits. Training is based on a project approach: master students learn the use of tools, while they develop a practical scheme with fixed design goals. As a result of studying the discipline, the master student will be able to: - define and plan the mission of spacecraft; - solve complex engineering problems using computer simulation skills in modern CAD systems; - apply methods of modeling and creating space technology designs based on modern information technologies using design automation tools; - apply the skills of modeling the design of space technology using automation tools for design and construction; - demonstrate knowledge of three-dimensional modeling of parts. When studying the discipline, the following issues will be considered: studying the design and production preparation methodology in the environment of CAD systems; studying the application package of the integrated CAD system NASTRAN; implementation of a complex of works on the engineering analysis of models in the integrated CAD system NASTRAN, the construction of a physical and mathematical model of the projected device using finite element analysis.
-
Space Systems Engineering
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the discipline is the formation of knowledge in the field of engineering of space systems. As a result of mastering the discipline, the master student will be able to: - solve control problems in technical systems related to increasing the efficiency of the operation of space complexes and systems; - design space systems; - analyze the performance of works on the engineering of space systems; - use the obtained theoretical knowledge in practice; - analyze the problems of engineering of space systems. When studying the discipline, the following questions will be considered: Detailed mission analysis. Detailed orbit analysis. The life cycle of the space system. Identification of alternative nano and microsatellite architectures. Detailed thermal calculation of the spacecraft. Overview of the design process and characterization of the payload. Spacecraft configuration. Basic modeling tools.
-
Methods of processing satellite data
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the discipline is to familiarize the students with the basic methods and techniques of digital processing and conversion of satellite data in modern information systems for recording, storing, processing and reporting data, studying the methods of implementing effective algorithms for the transformation and analysis of satellite data in information systems and on modern personal computers. As a result of studying the discipline, the master student will be able to: - describe the main methods of receiving, transmitting, receiving, filtering, restoring satellite data; - select modern methods of digital processing of satellite data; - apply modern methods of digital signal filtering for processing satellite data; - preliminary processing of satellite data using modern technical means; - interpret satellite received data. When studying the discipline, the following issues will be considered: general information on remote sensing of the Earth, space systems for remote sensing of the Earth, methods of preliminary processing of remote sensing data, methods of automated interpretation of satellite images, application problems solved using remote sensing data, modern systems for processing and analyzing remote sensing data.
-
Optimization Methods for the Engineered Systems
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The aim of the course is the formation of professional competencies for the formulation and solution of engineering problems using optimization methods. As a result of study the discipline, the master students will be able to: - explain optimization methods for engineering problems; - use methods for solving optimization problems; - solve engineering optimization problems; - solving dynamic problems; - analyse and appreciate variety of performance measures for various optimization problems; - use the knowledge gained in practice. When studying the discipline, the following questions will be considered: basics of optimization, the principles of optimal control, solution methods including numerical algorithms, predictive control, dynamic programming, variational calculus, Pontryagin's maximum principle, application of the theory of optimization control for engineering systems and examples.
-
Optical and radar systems of Earth remote sensing satellites
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the course: the formation of knowledge among master students about the basics of remote sensing, experimental processing of space photo- and radio images. Upon successful completion of this discipline, master students should be able to: - illustrate the remote sensing scheme; - show the advantages and disadvantages of remote sensing data; - process and apply remote sensing data; - classify remote sensing imaging systems. - describe photographic imaging systems, optomechanical and optoelectronic scanners, radar and laser imaging systems. - apply digital image processing methods in practice The course “Optical and radar systems of Earth remote sensing satellites” for undergraduates offers professional knowledge in the field of remote sensing, introduces the main sources of remote sensing data, the principles and methods of processing them and obtaining thematic maps.
-
Fundamentals of digital photogrammetric system
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the discipline is to familiarize the master students with the basics of remote sensing of the earth and digital photogrammetric systems. As a result of studying the discipline, the master student will be able to: - demonstrate theoretical knowledge in the field of digital technologies for processing remote sensing data; - demonstrate the skills of working with remote sensing data in various software systems; - conduct preliminary and thematic processing of remote sensing data; - work with remote sensing data in various software systems; - create orthophotoplans and digital photogrammetric terrain models on modern digital photogrammetric stations - apply the technology of digital processing of scanner and radar images; - apply in practical and professional activities methods of monitoring research and management of natural environments to address issues of rational use and protection of natural resources; - process satellite data in modern geoinformation systems. When studying the discipline, the following issues will be considered: conducting preliminary and thematic processing of remote sensing data, methods for constructing RS, application of software tools for digital photogrammetry and GIS. The study of methods for studying the Earth and other space bodies from air or space vehicles, which include aerial photography, space imagery, decoding pictures, as well as visual observations: the observation of the territory by an observer from the aircraft.
-
Applied microelectronics
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the discipline is to teach master students the theoretical and practical foundations of microelectronics in space vehicles used to solve space problems. As a result of studying the discipline, the master student will be able to: - describe the types of space microelectronics; - demonstrate knowledge of the basics of microelectronics, microcontrollers of different types, electrical circuits of different types, the operating principle of simple analog and digital devices; - demonstrate knowledge of the principles of assembly, soldering, creating microelectronic devices in space vehicles; - determine the scope of application of microchips in space vehicles; - adapt standard electronic devices for the purposes of a specific physical experiment; - synthesize the simplest functional electronic devices on integrated microcircuits and discrete components, computer models; - use electronic equipment in practical activities. When studying the discipline, the following issues will be considered: familiarization with the basic devices and devices of microelectronics, their operation principles, circuitry and design-technological, electrical parameters and characteristics, forms and fields of application; studying the element base of microelectronics.
-
Applied sciences on Earth and ecological management
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the discipline is to master the principles, main provisions of environmental management based on the data of space monitoring. As a result of studying the discipline, the master student will be able to: - describe the principles of environmental management; - solve the problems of improving the ecology of regions using space monitoring data; - analyze the problems of environmental management; - demonstrate knowledge of the main stages of development and implementation of the environmental management system; - describe the methodological foundations of environmental management. In studying the discipline, the following issues will be considered: applied Earth sciences, areas of the ecological management application, their development using satellite data; principles of environmental management based on the data of space monitoring; monitoring of the ecological state of industrial regions based on the results of space imagery.
-
Application of GEONETCast for monitoring of environment
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the discipline is to master the principles of working with the GEONETCast network for monitoring the environment of industrial regions of Kazakhstan. As a result of studying the discipline, the master student will be able to: - describe the operation of the GEONETCast network; - use data provided by the GEONETCast network for monitoring the environment of industrial regions of Kazakhstan; - analyze the results obtained and make recommendations for improving the environment of industrial regions; - study of the methodological foundations of environmental monitoring; - monitor the ecological state of industrial regions based on the results of space imagery. When studying the discipline, the following issues will be considered: acquaintance with the global network GEONETCast on the dissemination of data of satellite systems that provide environmental data to the global community of users; studying the principles of working with this network; acquisition of skills of using the network for the tasks assigned.
-
Designing of the systems for spacecraft motion control and navigation
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the discipline is to teach master students theoretical and practical bases for designing of the systems for spacecraft motion control and navigation used for solving space problems. As a result of studying the discipline, the master student will be able to: - indicate the main problems in the subject area; - describe the methods and control algorithms; - solve problems of modeling and design of spacecraft motion and navigation systems using various actuators; - analyze the designing of the systems for spacecraft motion control and navigation; - develop and apply mathematical models to assess control accuracy; - apply the knowledge gained in solving problems in the designing of the systems for spacecraft motion control and navigation. When studying the discipline, the following issues will be considered: general problem of spacecraft attitude control system and navigation, eqations of spacecraft motion, methods for determining the spacecraft orientation, development of algorithms for controlling the spacecraft motion.
-
Test systems for space equipments
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the course is to give master students knowledge about various types of tests at all stages of the life cycle of rocket and space technology, including autonomous, complex tests, control and flight tests, familiarize them with standard bench equipment for each type of testing, develop the ability of a future specialist to scientifically- technical conclusions and solutions. As a result of studying the discipline, the master student will be able to: - generalize and use the obtained theoretical knowledge in practice when testing individual units and assemblies of rocket and space technology; - prepare a test program; - independently conduct test work; - analyze and generalize the experimental data obtained; - make an adjustment to the design documentation based on the results of the experimental work. When studying the discipline, the following issues will be considered: modern methods of testing rocket and space equipment and bench equipment for their conduct, methods of processing and analysis of experimental data.
-
Modern gyroscopic systems
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The aim of the discipline To give master students the basic principles of building gyrostabilizers for various purposes and gyroscopic orientation systems, with the ability to analyze the errors and the physical essence of the phenomena occurring in this process. The tasks of studying the discipline are to acquaint master students with the mathematical methods of research and the basic principles of the construction and application of gyroscopic systems, as well as the basic information of their practical application. As a result of studying the discipline "Modern gyroscopic systems" the master students will be able to: - analyze mathematical equations of gyroscopic systems; - apply them to build the necessary models; - investigate the stabilization of a rotating satellite; - apply the principles of the construction of gyro stabilizers; - investigate the mechanics of gyroscopic instruments and systems. The discipline is a theoretical and practical course that forms scientific and methodological visions of master students. The course begins with consideration of rotating satellite stabilization and principles of building-up of gyrostabilizers. Gyroscopic stabilization systems and spacecrafts control systems are considered. The mechanics of gyroscopic instruments and systems used on modern aircraft, rockets and spacecrafts are considered.
-
The target apparatus of the spacecraft
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The aim of the discipline The purpose of the course: the formation of knowledge among master students about the target apparatus of spacecraft. Upon successful completion of this discipline, master students should be able to: - classify the composition and purpose of various types of target apparatus of spacecraft; - interpret various methods of receiving and transmitting information; - describe the composition and purpose of the target equipment of the navigation spacecraft; - describe the composition and purpose of the target equipment of geodetic satellites; - describe the composition and purpose of the target equipment of communication satellites. The study of the discipline is aimed at obtaining master students the knowledge necessary for engineering (design, research) activities in the design and development of target equipment for Earth remote sensing satellites, communications, and navigation and geodetic spacecrafts. Detailed information on the structure and designation of on-board systems such as on-board navigation transmitters, on-board synchronizers, on-board repeaters, antenna-feeder devices is offered: Parabolic and offset reflectors, Phased antenna grids, Power dividers and adders, Microwave filters, Contour-shaped antennas, Convertible antennas (inflatable, truss and folding) are given.
-
Ecological mathematical modeling
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the discipline is to examine common approaches and the application of mathematical methods in the analysis of ecological and natural processes and phenomena; studying the stages of creating models of ecological processes; studying the principles of computer modeling and tools for the analysis of environmental processes. As a result of studying the discipline, the master student will be able to: - describe the basic concepts and definitions of modeling theory, the classification of models; - demonstrate knowledge of the features of the application of different models; - use typical software products that are oriented towards the analysis of ecological processes; - perform ecological mathematical modeling of processes; - monitor the ecological state of industrial regions based on the results of space imagery. In studying the discipline, the following questions will be considered: the basic concepts of modeling theory, the classification of models; formation of the basis for planning the experiment and constructing regression models for the study of ecological processes; formation of basic concepts on methods of mathematical processing of environmental research data, ideas about models, problems, formulation of research problems and methods for their solution.
-
Computer management of complex technical means
- Type of control: [RK1+MT1+RK2+Exam] (100)
- Description: The purpose of the course: the formation of knowledge among master students about computer-aided control systems for spacecraft. Upon successful completion of this discipline, master students should be able to: - create technical, algorithmic, software and technological solutions used in this field; - put into practice the skills of analytical and experimental research using the basic methods and tools used in the field studied in this discipline; - formulate the methodological principles of research of real processes; - describe the basic concepts of the theory of control of complex systems; - use the basic principles and methods of programming in MatLab, methods for performing mathematical calculations using modern software packages on a computer. When studying the discipline, master students mastering methods and algorithms for solving management problems in technical systems, design tasks for software and hardware automation and control, preparing technical tasks for design work, modern information processing technologies, modern technical management tools, computer equipment, computer network technologies and telecommunications for the design of automation and control systems.
-
Research practice
- Type of control: Защита практики
- Description: Рurpose of practice: gaining experience in researching an urgent scientific problem, expanding professional knowledge gained in the learning process, and developing practical skills in conducting independent scientific work In the course of practice, form the ability: -critically evaluate scientific literature on the topic of scientific research; -to formulate topical scientific problems, directions, research hypotheses; -plan and organize research activities; - to assess the validity of the methods used in scientific research; -create research products, broadcast your own research results.
-
Teaching Internship
- Type of control: Защита практики
- Description: Aim оf discipline: formation of the ability to carry out educational activities in universities, to design the educational process and conduct certain types of training sessions using innovative educational technologies. During the study of course, masters should be competent in: 1. develop the taught discipline in an amount sufficient for the analytical assessment, selection and implementation of the module of the academic discipline, taking into account the level of preparedness of students, their needs, as well as the requirements of the State Educational Establishment of the Republic of Kazakhstan; 2. to develop the specifics of the organization and conduct of various types of classes in higher educational institutions (lecture, seminar, laboratory and practical); 3. apply the basic means of assessing students' academic achievements; 4. analyze the educational and methodological literature and use it to build your own presentation of program material; 5. prepare plans for seminars, practical classes, laboratory work in accordance with established methodological and methodological approaches. During the study of the discipline masters will learn following aspects: Acquaintance with the goals, objectives and content of teaching practice; drawing up of the schedule of consultations, kinds of the reporting and terms of their granting. Harmonization of the individual plan of the scientific and pedagogical practice of the undergraduate. Implementation of educational-methodical tasks coordinated with the head of practice. Visiting and analyzing the training sessions conducted by the teachers of the department. Acquaintance with the organization of scientific, methodical and educational work (plans, normative documents regulating the pedagogical process) at the faculty / at the university and the department. Development (at least 10 lessons) and conducting classes with students. Carrying out activities on the designated activities (scientific and methodological seminars, conferences, scientific circles, educational events). Preparation of an article of a scientific and methodical nature. Drawing up a report on scientific and pedagogical practice.