- #1
Nikitin
- 735
- 27
Hey. So I switched from ChemE to Engineering-physics (I guess I followed my hearth here, instead of my head), and this entails I will have to take a course in Electricity and Magnetism this semester. During the previous one, the Engineering-physics guys took a course in mechanical physics, and apparently mechanical physics is recommended for Electricity and Magnetism. My knowledge of mechanical physics is pretty much limited to my high-school education (Newton's 3 laws, kinetic and potential energy, momentum, centripetal forces etc.). The only thing going for me, is that I understand the math.
So, I would like to get an idea of how much time I will have to spend knocking my head against a brick-wall in advance, for planning ahead. Can somebody please assist me?
This is the curriculum for E&M:
Electrostatics: Coulomb's law. Electric field and force. Gauss' law. Electric potential and energy. Conductors. Capacitance. Dielectrics. Magnetostatics: Magnetic field, force, moment and energy. Magnetic dipole. Biot-Savart's law. Ampere's law. Magnetic flux. Magnetic materials. Electromagnetic induction: Faraday's law. Lenz' law. Inductance. Simple electric circuits. Experimental methods: Measuring physical quantities. Data acquisition. Interpretation. Documentation.
Curriculum for Mechanical Physics:
A general introduction to Newtonian mechanics. Newton's laws. Conservation of energy, momentum, and angular momentum. Mechanical oscillations. Gravitation. Experimental methods: Measuring physical quantities, data acquisition, interpretation, and documentation. A separate series of lectures introduce the students to a wider field of physics and mathematics.
So, I would like to get an idea of how much time I will have to spend knocking my head against a brick-wall in advance, for planning ahead. Can somebody please assist me?
This is the curriculum for E&M:
Electrostatics: Coulomb's law. Electric field and force. Gauss' law. Electric potential and energy. Conductors. Capacitance. Dielectrics. Magnetostatics: Magnetic field, force, moment and energy. Magnetic dipole. Biot-Savart's law. Ampere's law. Magnetic flux. Magnetic materials. Electromagnetic induction: Faraday's law. Lenz' law. Inductance. Simple electric circuits. Experimental methods: Measuring physical quantities. Data acquisition. Interpretation. Documentation.
Curriculum for Mechanical Physics:
A general introduction to Newtonian mechanics. Newton's laws. Conservation of energy, momentum, and angular momentum. Mechanical oscillations. Gravitation. Experimental methods: Measuring physical quantities, data acquisition, interpretation, and documentation. A separate series of lectures introduce the students to a wider field of physics and mathematics.