In this subject it is intended that the student develops the following skills:

a) The basic competencies defined in RD1393/2007.

b) The transversal competencies assigned to the aforementioned Module defined as:

i) Use of various experimental sciences to understand chemical phenomena (TM01CM09).

ii) Knowledge and use of the most common sources of information and documentation in experimental sciences (TM01CM11).

c) Specific competencies:

Knowledge and understanding of the magnitudes and basic principles of physics, with special emphasis on those related to the field of chemistry (M01CM06).

THEORY PROGRAM

Topic 0. Physical Quantities

0.1.- Introduction: Scales and orders of magnitude in nature, Basic interactions.

0.2.- Magnitudes: fundamental and derived. Units and systems of units. Dimensional analysis.

0.3.- Basic operations: Vector and scalar quantities.

Topic 1. Kinematics

1.1.- Kinematics of the material point: Velocity and acceleration vectors. Translation movement.

1.2 Circular movement.

Topic 2. Dynamics

2.1.- Particle dynamics: Newton's laws.

2.2.- Linear moment.

2.3.- Angular momentum. Moment of a force. Central forces.

2.4.- Friction forces.

Topic 3. Work and Energy

3.1.- Work and energy.

3.2.- Kinetic energy, gravitational potential and elastic potential.

3.3.- Conservation of mechanical energy.

3.4.- Movement under the action of conservative forces.

Topic 4. Oscillatory movement and waves

4.1.- Oscillatory movement: Simple harmonic oscillatory movement. Damped oscillations. Forced oscillations. Resonance.

4.2.- Waves. Types of waves. Wave equation. harmonic waves.

Topic 5. Particle systems

5.1.- Particle Systems: Linear momentum, angular momentum and energy of a particle system. Mass center. Moment of inertia. Conservation theorems. Collisions.

5.2- Rigid solid. Moment of inertia of a rigid solid. Dynamics of a rigid solid.

5.3.- Many particle systems: Volume, pressure, temperature. Equation of state of an ideal gas. Real gases. Heat and work.

Topic 6. Electric Field

6.1.- Electrostatics: Electric charge, properties. Coulomb law. Electric field. Gauss's Law. Electric potential. Charge distributions: Electric moments. Electric dipole. Response of material media to electric fields. Materials. electrostatic energy

6.2.- Electrokinetics: Electric current. Intensity. Current density. Continuity equation Driving and material means

Topic 7. Magnetic Field

Vector magnetic induction. Lorentz force. Biot-Savart law. Ampere's Law. The magnetic dipole (Magnetic dipole moment). Response of material media to magnetic fields. Magnetic materials.

Topic 8. Electromagnetic Field

Faraday's Law. Displacement currents. Maxwell's equations.

Topic 9. Electromagnetic waves

Propagation of electromagnetic waves. Monochrome flat waves. The electromagnetic spectrum. Photons.



LABORATORY PRACTICE PROGRAM



- Simple pendulum

Small oscillations and determination of the acceleration of gravity. Approach for large oscillations

- Translation dynamics

Second law of Newton. Inertial mass and gravitational mass. Collisions

- Rotation dynamics

Moment of inertia. Conservation of angular momentum

- Oscillatory movement

Damped oscillations. Oscillation frequency and damping constant

- Movement within a fluid: effect of viscosity.

Determination of the viscosity of glycerin with a ball viscometer

- Electric current and Ohm's law

Conductivity and its variation with temperature in various materials

- Lorentz force

Movement of charged particles in the presence of electric and magnetic fields. Determination of the charge/mass ratio of the electron

- Forces between currents

Verification of Ampere's law with a torsion balance.

- Light Propagation

Variation of luminous intensity with distance. Speed ​​of light. Determination of the refractive index of a glass. Total reflection. Limit angle.

Throughout the subject, master classes and problem classes or seminars are taught.

The two practical credits consist of the preparation of 5 experiments, in groups of two students, and the delivery of their results and their analysis in individual reports that are subsequently used in the evaluation.

1- Continuous Assesment.

Theory:

In the continuous evaluation, two partial exams will be carried out. The first partial will be dedicated to the topics covered during the first semester of the subject (weight on the final grade 50%), and the second partial will be dedicated to the syllabus of the second semester (weight on the final grade 50%). It is necessary to obtain a minimum grade of 5 in each of the midterms to be able to pass the subject.



Laboratory practices:

To pass the subject it is necessary to complete all the practices and obtain a grade of "Passed". In order to pass the practices, the following will be taken into account:

to. Delivery of experimental errors exercises.

b. Experimental results.

c. Scientific Report.

Those people with a grade of "Not Passed" must take a written test in the extraordinary call.



2- Assesment through final test.

Theory:

If you pass only one of the partial exams in the ordinary call exam, you will only be able to take the exam corresponding to the semester in question. In case of taking the complete exam, the average of the grade between both partial exams will be taken into consideration. It is necessary to obtain a minimum grade of 5 in the exam taken, whether it is a partial or the complete exam.



Laboratory practices:

In this case it is also necessary to have passed the practices.



RESIGNATION:

Failure to take the final exam will result in resignation from the call.

Basic bibliography

Sears F. W. y Zemansky M W., Física universitaria. Vol. 1 y Vol. 2. 13a Edición. Pearson (2013)

Tipler P.A. y Mosca G., Física. (Volúmenes 1 y 2) Ed. Reverté S.A. (2010)

Alonso M y Finn E.J., Física. S.A. Alhambra Mexicana (1995)

Serway R.A. y Jewett J.W., Electricidad y Magnetismo. 6a Edición. Thomson. (2005)

In-depth bibliography

E.J. Finn y M. Alonso. Física (Volúmenes I,II y III) Alhambra Mexicana (1998)
Resnick R. y Halliday D., Física para estudiantes de Ciencias e Ingeniería (2 vols.). Compañía Editorial Continental. S.A.México (1994)

Journals

Revista Española de Física
Investigación y Ciencia
Physics Today