THEORETICAL PHYSICS

Fisica THEORETICAL PHYSICS

0522600012
DIPARTIMENTO DI FISICA "E.R. CAIANIELLO"
EQF7
PHYSICS
2017/2018

OBBLIGATORIO
YEAR OF COURSE 1
YEAR OF DIDACTIC SYSTEM 2017
PRIMO SEMESTRE
CFUHOURSACTIVITY
756LESSONS
224EXERCISES
Objectives
THR COURSE IS AN INTRODUCTION TO MODERN THEORETICAL PHYSICS, PRESENTED IN A CONCISE FORM, SUITABLE FOR APPLICATIONS.

KNOWLEDGE AND UNDERSTANDING:
THE OBJECTIVE OF THE LECTURES IS TO TRACE A PATH FOR THE UNDERSTANDING AND THE APPLICATION, IN A CRITICAL WAY, OF ALL THE NOTIONS INHERENT TO THE FUNDAMENTALS OF THEORETICAL PHYSICS. THIS TARGET WILL BE PURSUED ALSO PROVIDING THE STUDENTS WITH SPECIFIC DIDACTIC MATERIALS.

APPLYING KNOWLEDGE AND UNDERSTANDING:
THE AIM IS TO MAKE STUDENTS ABLE TO EFFICIENTLY HANDLE THEORETICAL NOTIONS AND APPLICATIONS IN THEORETICAL PHYSICS. THIS IS EXPECTED TO FAVOUR THE INCLUSION IN NATIONAL AND INTERNATIONAL RESEARCH INSTITUTIONS, AS WELL AS IN DIFFERENT WORKING ENVIRONMENTS.
Prerequisites
THE COURSE IS ADDRESSED TO THE STUDENTS WITH INTEREST FOR HIGH ENERGY PHYSICS AND COSMOLOGY, AS WELL AS FOR STUDENTS INTERESTED TO CONDENSED MATTER AND SOLID STATE PHYSICS. THE MATHEMATICAL KNOWLEDGE RECEIVED IN THE COURSES OF THE FRIST LEVEL IS REQUIRED.
Contents
THEORY OF SCATTERING IN QUAMTUM MECHANICS. CROSS SECTIONS. CENTRAL POTENTIALS. OPTIC THEOREM.
PATH INTEGRAL FORMULATION OF QUANTUM MECHANICS: DERIVATION OF THE SCHOEDINGER EQUATION. HARMONIC OSCILLATOR (COMPOUTATION OF THE EIGENVALUES AND EIGENSTATES).
RELATIVISTIC WAVE EQUATIONS: KLEIN-GORDON EQUATIONS. DIRAC EQUATIONS. DIRAC PARTICLE IN AN ELECTROMAGNETIC FIELD. NON RELATIVISTIC LIMIT. MAGNETIC MOMENTUM OF THE ELECTRON. QUANTIZATION OF SCALAR AND FERMION FIELDS. GAUGE THEORIES (AN INTRODUCTION).
QUANTIZATION OF THE SCALAR AND FERMION FIELDS.
ELEMENTARY PROCESSES IN QED.
Teaching Methods
LECTURES WITH APPLICATIONS AND EXERCISES ON TOPIC RELATED TO THE CONTENTS OF THE COURSE ARE GIVEN TO THE STDENTS. THE AIM IS TO PROVIDE FUNDAMENTAL NOTIONS OF PHYSICS AND MATHEMATICS ALLOWING THE DESCRIPTION OF NEW PHYSICAL PHENOMENA, TO PERFORM ALSO IN COLLABORATION WITH OTHER RESEARCHERS.
Verification of learning
ORAL EXAMINATIONS ARE PERFORMED WITH THE AIM OF VERIFYING THAT STUDENTS HAVE CORRECTLY LEARNED AND UNDERSTOOD THE ARGUMENTS OF THE LECTURES. THEY MUST ALSO SHOW ABILITY TO EXPOSE IN A CLEAR AND SYNTETIC WAY THE ARGUMENTS OF THE LECTURES AND TO FORMULATE AUTONOMOUS JUDGEMENTS.
Texts
1. C. ITZYKSON, J.-B. ZUBER, "QUANTUM FIELD THEORY", MCGRAW-HILL
2. S. WEINBERG, "LA TEORIA QUANTISTICA DEI CAMPI", ZANICHELLI.
3. W. GREINER, J. REINHARDT, "FIELD QUANTIZATION", SPRINGER
4. W. GREINER, "RELATIVISTIC QUANTUM MECHANICS", SPRINGER
5. M. KAKU, "QUANTUM FIELD THEORY: A MODERN INTRODUCTION"
6. F. GROSS, "RELATIVISTIC QUANTUM MECHANICS AND FIELD THEORY", JOHN-WILEY & SON
7. R.H. RYDER, "QUANTUM FIELD THEORY", CAMBRIDGE UNIVERSITY PRESS
8. C. ROSSETTI, "ELEMENTI DI TEORIA DELL’URTO", LEVROTTO & BELLA
More Information
ATTENDING THE COURSE IS HIGHLY RECOMMENDED. THE STUDENT IS INVITED TO CONTACT THE TEACHER (ALSO IN DAYS AND HOURS NOT INCLUDED IN THE RECEPTION TIME SCHEDULE) FOR FURTHER EXPLANATIONS OF THE ARGUMENTS OF THE COURSE.

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