Individual
course details |
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Study programme |
General
physic |
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Chosen research area (module) |
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Nature and level of studies |
Basic
academic studies |
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Name of the course |
General
physic 1 |
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Professor (lectures) |
Zorica
Popović |
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Professor/associate (examples/practical) |
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Professor/associate (additional) |
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ECTS |
9 |
Status
(required/elective) |
obligatory |
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Access requirements |
none |
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Aims of the course |
To
introduce students with basic characteristics of motion. To make connection
of given quontities with the cause of motion. To get familiar with the
experiments that led to these cognitions. Consider the possibilities of
applying the laws of mechanics in meteorology and astrophysics. To get know
the physical quantities that describe the movement of celestial bodies,
clouds, rain drops... |
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Learning outcomes |
Acquiring
an overview of physical quantities
that characterize the motion of material points, rigid bodies,
physical systems. |
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Contents of the course |
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Lectures |
1.
Physical basic of mechanics. Reference systems. Physical quantities. Units.
Kinematics of the material point. Determination of the path of the material
point. Velocity of the material point. Acceleration of the material point. 2.
Kinematics of a rigid body. Translational motion of a rigid bodie. Rotational
motion of a rigid body. Angular velocity. Angular acceleration. 3. Dynamics
of the material point. Force. Mass. Free and forced movement of the body. 4.
Straight-line motion of the material point. Curved motion of the material
point. Frictional forces. Classification of mechanical connections. 5. The
dynamics of the material point relative motion. Galilean principle of
relativity. 6. Inertial frames of references. Noninertial frames of
references. 7. Conservation lows in nature. Work. Force. Wok force.
Conservative and nonconservative forces. Energy. Conservation of momentum. 8.
Basics of dynamics of a mechanical system. Center of mass and its
motion.Dynamics of rigid bodies. 9. Gravitation. Basic laws of celestial
mechanics. Newton's low of gravitation. Generalization of gravity low. 10.
Gravitational constant and determination of the mass of the Sun and the
planets. Gravitational and inert mass. 11. Gravitational field. The work done
by the gravitational force. Gravitational potential energy. Potential curves
and body balance conditions. 12. Body motions in the gravitational field of
the Earth. First and second cosmic speed. The role of gravity in nature.
Limits of the validity of classical mechanics. 13. Introduction to the
mechanics of continuous environments. Hooke's low. Elastic deformation
energy. 14. Fluid mechanics. Fluid statics or hydroaerostatics. Dynamics of
ideal fluid. Viscosity fluid dynamics. 15. Mechanical oscillations. |
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Examples/ practical classes |
Lectures
are followed by problem solving classes. |
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Recommended books |
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1 |
B.
Žižić, Kurs opšte fizike,fizička mehanika Naučna kniga,
Beograd (1983) |
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2 |
V.
Vučić, D. Ivanović, Fizika, Naučna knjiga, Beograd (1968) |
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3 |
I.E.Irodov,
Zadaci iz opšte fizike, Zavod za uđzbenike i nastavna sredstava,
Podgorica (2000) |
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4 |
Young
& Freedman, University Physics vol. 1, 11th ed., Pearson Addison Wesley
(2004) |
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5 |
R. P.
Feynman, R. B. Leighton, M. Sands, The Feynman lectures on Physics, vol. 1,
Addison Wesley Publishing Company (1966) |
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Number of classes (weekly) |
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Lectures |
Examples&practicals |
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Student
project |
Additional |
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4 |
3 |
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Teaching and learning methods |
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Assessment (maximal 100) |
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assesed coursework |
mark |
examination |
mark |
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coursework |
20 |
written
examination |
30 |
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practicals |
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oral
examination |
50 |
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papers |
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presentations |
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