Lesson Code | Course Name | Class | Credit | Lesson Time | Weekly Lesson Hours (Theoretical) | Weekly Lesson Hours (Practice) | Weekly Class Hours (Laboratory) |
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KM 3393 | Quantum Mechanics | Үшінші курс | 5 | 150 | 1 | 2 | 0 |
Quantum mechanics is focused on the study of physical phenomena occurring at a microlevel comparable to Planck's constant. The effects are manifested at the maximum microscopic level. Quantum mechanics considers the behavior and properties of atoms, nuclei, photons and other elementary particles. As a result of studying the discipline, students develop flexibility and practical skills that allow them to freely apply the methods of quantum mechanics, explain the general theoretical situation, and analyze physical examples.
narrative, exchange of ideas, discussion, problem methods, reporting.
1 | Able to use physical knowledge, methods of physics recognition and practical methods of action in various situations of everyday life; |
2 | The main laws and principles of physics are performed by connecting their meaning with the general laws of physics in the production of any individual problem |
Haftalık Konu | Evaluation Method | |
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1 | Able to use physical knowledge, methods of physics recognition and practical methods of action in various situations of everyday life; | |
2 | The main laws and principles of physics are performed by connecting their meaning with the general laws of physics in the production of any individual problem | |
3 | Probabilistic characterization of microparticle behavior. The control problem in quantum mechanics. | |
4 | Representation of determinable quantities in quantum mechanics. | |
5 | Eigenfunction and eigenvalues of self-adjoint operators, their physical meaning. | |
6 | Average values of observed variables, probability of their chance values. Commutator of operators. Principle of causality in quantum mechanics. Schrödinger's equation. | |
7 | Hamiltonian for a system of particles and a particle interacting in an external field. | |
8 | Schrödinger equation and conservation laws. The principle of causality in quantum mechanics. Schrödinger's equation. Schrödinger's radial equation. Energy spectrum and wave functions of hydrogen atom. | |
9 | Conservation laws and their relation to the symmetry of space and time. | |
10 | Schrödinger's stationary equation. | |
11 | Coordinate representation. Free representation of the description of states and observable quantities. | |
12 | Free representation of the description of states and observable quantities. | |
13 | Impulse and energy representation, their connection with coordinate representation. | |
14 | One dimensional movement. | |
15 | A particle problem in a potential well. |
PÇ1 | PÇ2 | PÇ3 | PÇ4 | PÇ5 | PÇ6 | PÇ7 | PÇ8 | PÇ9 | PÇ10 | PÇ11 | PÇ12 | PÇ13 | PÇ14 | PÇ15 |
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Textbook / Material / Recommended Resources | ||
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1 | 1. Kvanttyq fızıka: negіzgі zańdar. Oqýlyq . -2012. I. E. Irodov kýrs fızıkı. | |
2 | 2. Kvanttyq mehanıka. Jańa kózqaras. Oqýlyq. -2013. K. Konıshı, Dj. Paffýtı | |
3 | 3. Kvantovaıa fızıka . Ýchebnoe posobıe. 2017. A.G. Volkov, A.A. Povzner | |
4 | 4. Kvanttyq mehanıka. Jańa kózqaras : Oqýlyq. 1-bólіm 2013 http://rmebrk.kz/book/115125 Kvanttyq mehanıka. Jańakózqaras :Oqýlyq. 2-bólіm 2014 http://rmebrk.kz/book/1171050 Konıshı, K., Paffýtı, Dj. | |
5 | 5. Kvanttyq fızıka: negіzgі zańdar. Oqýlyq . -2012. I. E. Irodov kýrs fızıkı. | |
6 | 6. Kvantovaıa fızıka . Ýchebnoe posobıe. 2017. A.G. Volkov, A.A. Povzner |