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B003715 - ELECTROMAGNETIC FIELDS
Main information
Teaching Language
Course Content
Suggested readings
Learning Objectives
Prerequisites
Teaching Methods
Further information
Type of Assessment
Course program
Academic Year 2018-19
Coorte 2017 - 3-years First Cycle Degree (DM 270/04) in Electronics and Telecommunications Engineering
Course year
Second year - Second Semester
Belonging Department
Information Engineering (DINFO)
Course Type
Single education field course
Scientific Area
ING-INF/02 - ELECTROMAGNETIC FIELDS
Credits
6
Teaching Hours
54
Teaching Term
25/02/2019 ⇒ 07/06/2019
Attendance required
No
Type of Evaluation
Final Grade
Course Content
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Course program
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Lectureship
Teaching Language
Fundamentals of electromagnetism:
1) Maxwell's equations: differential, integrals, time domain, phasor domain
2) The constitutive relations
3) Plane waves in the time domain and in phasors domain
4) Relations between electromagnetic fields at the discontinuity surface between media
5) Reflection and transmission of plane waves
6) Plane waves in dispersive media (ionospheric plasma)
7) Energy associated with the
electromagnetic field: the Poynting theorem
Guided propagation:
1) Transmission lines: simplified model of guiding structures
2) Equation of telegraphers for transmission lines
3) Closed line on a generic load
4) The problem of load matching
5) Analogy between plane waves and transmission lines
Radiated propagation
1) Theory of radiation: the potentials
2) Elementary antennas
3) Transmitting antennas
4) Receiving antennas
5) Radar Cross Section (RCS)
6) Connections between antennas
7) Antenna systems: arrays
1) Maxwell's equations: differential, integrals, time domain, phasor domain
2) The constitutive relations
3) Plane waves in the time domain and in phasors domain
4) Relations between electromagnetic fields at the discontinuity surface between media
5) Reflection and transmission of plane waves
6) Plane waves in dispersive media (ionospheric plasma)
7) Energy associated with the
electromagnetic field: the Poynting theorem
Guided propagation:
1) Transmission lines: simplified model of guiding structures
2) Equation of telegraphers for transmission lines
3) Closed line on a generic load
4) The problem of load matching
5) Analogy between plane waves and transmission lines
Radiated propagation
1) Theory of radiation: the potentials
2) Elementary antennas
3) Transmitting antennas
4) Receiving antennas
5) Radar Cross Section (RCS)
6) Connections between antennas
7) Antenna systems: arrays
Course Content
Fundamentals of electromagnetism
Guided propagation
Radiated propagation
Guided propagation
Radiated propagation
Suggested readings (Search our library's catalogue)
F. T. Ulaby, Fondamenti di campi elettromagnetici. Teoria e applicazioni, McGraw Hill: Milano, 2006
S.M. Wentworth, Fundamentals of Electromagnetics with Engineering Applications, Wlley, 2005
S.M. Wentworth, Fundamentals of Electromagnetics with Engineering Applications, Wlley, 2005
Learning Objectives
Give the basis of Electromagnetics as applied to Engineering
Prerequisites
Analysis, Physics
Teaching Methods
Classroom lessons
Further information
.
Type of Assessment
Written and oral examination
Course program
Fundamentals of electromagnetism:
1) Maxwell's equations: differential, integrals, time domain, phasor domain
2) The constitutive relations
3) Plane waves in the time domain and in phasors domain
4) Relations between electromagnetic fields at the discontinuity surface between media
5) Reflection and transmission of plane waves
6) Plane waves in dispersive media (ionospheric plasma)
7) Energy associated with the
electromagnetic field: the Poynting theorem
Guided propagation:
1) Transmission lines: simplified model of guiding structures
2) Equation of telegraphers for transmission lines
3) Closed line on a generic load
4) The problem of load matching
5) Analogy between plane waves and transmission lines
Radiated propagation
1) Theory of radiation: the potentials
2) Elementary antennas
3) Transmitting antennas
4) Receiving antennas
5) Radar Cross Section (RCS)
6) Connections between antennas
7) Antenna systems: arrays
1) Maxwell's equations: differential, integrals, time domain, phasor domain
2) The constitutive relations
3) Plane waves in the time domain and in phasors domain
4) Relations between electromagnetic fields at the discontinuity surface between media
5) Reflection and transmission of plane waves
6) Plane waves in dispersive media (ionospheric plasma)
7) Energy associated with the
electromagnetic field: the Poynting theorem
Guided propagation:
1) Transmission lines: simplified model of guiding structures
2) Equation of telegraphers for transmission lines
3) Closed line on a generic load
4) The problem of load matching
5) Analogy between plane waves and transmission lines
Radiated propagation
1) Theory of radiation: the potentials
2) Elementary antennas
3) Transmitting antennas
4) Receiving antennas
5) Radar Cross Section (RCS)
6) Connections between antennas
7) Antenna systems: arrays