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Electrical and Computer Engineering October 2011 Neil E. Cotter Electrical and Computer Engineering University of Utah Major in Electrical Engineering

Electrical and Computer EngineeringOctober 2011 Neil E. Cotter Electrical and Computer Engineering University of Utah Major in Electrical Engineering

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Electrical and Computer Engineering October 2011

Neil E. CotterElectrical and Computer Engineering

University of Utah

Major in Electrical Engineering

Electrical and Computer Engineering October 2011

OVERVIEW

What is EE?

What do EEs do?

Who do EEs collaborate with?

What do EEs learn?

What careers await EE graduates?

Electrical and Computer Engineering October 2011

WHAT IS ELECTRICAL ENGINEERING?

Electrical Engineers are inventors and innovators who apply knowledge of signals, circuits, physics, and systems to develop technologies to improve people's lives

Electrical and Computer Engineering October 2011

WHAT IS ELECTRICAL ENGINEERING?

Electrical Engineering: Bridging the Gap Among Disciplines in the 21st Century

Electrical and Computer Engineering October 2011

WHAT DO ELECTRICAL ENGINEERS DO?

Develop the technologies which allow people to communicate with each other and access information from wherever and whenever.

Collaborations with: CS, Math

Electrical and Computer Engineering October 2011

WHAT DO ELECTRICAL ENGINEERS DO?

Develop the technologies which will enable us to generate and distribute power from renewable resources and become energy independent.

Collaborations with: MechE

Electrical and Computer Engineering October 2011

WHAT DO ELECTRICAL ENGINEERS DO?

Develop the technologies for affordable, clean, efficient solar power generation

Collaborations with: Material Science

Electrical and Computer Engineering October 2011

WHAT DO ELECTRICAL ENGINEERS DO?

Develop new technologies that make sensors smaller, better, and make systems more reliable and energy efficient

Collaborations with: Many

Electrical and Computer Engineering October 2011

WHAT DO ELECTRICAL ENGINEERS DO?

Develop the technologies to improve medical care: Advances in biosensors, prosthetics, and imaging

Collaborations with: Bioengineering, Medicine

Electrical and Computer Engineering October 2011

EXAMPLE OF EE SYSTEM DESIGN

Artificial Retina: Restore sight to the blind

Image data from an external camera is wirelessly transmitted to the implant which stimulates electrodes in an array on the retina to produce formed vision.

Credit: Prof. Gianluca Lazzi

Electrical and Computer Engineering October 2011

EXAMPLE OF EE SYSTEM DESIGN

Changes in signal propagation between antennas in a wireless mesh network are used to estimate an image map and track people, even through walls.

Credit: Prof. Neal Patwari and Dr. Joey Wilson

http://www.youtube.com/watch?v=ifQkbMJ_sXM

Wireless networks that “see” through walls

Electrical and Computer Engineering October 2011

WHAT DO EE STUDENTS LEARN?

Tools from Mathematics and Sciences

programming, calculus, linear alg.,physics, chemistry or biology

Tools from EE

circuits & electronics, electro-magnetics, signals & systems, semicond. physics, digital design

Engineering Design

Technical Communication

Electrical and Computer Engineering October 2011

Fall SemesterFirst Year

ECE 1900 Freshman seminarCS 1410 Object-oriented

programmingMath 1210 Calculus IWrtg 2010 Acad. Writing & ResearchLEAP 1501 Ethical Implications of

Engineering

Second Year ECE 2240 Intro to Electronic

CircuitsMath 2250 Differential Equations

& Linear Algebra Phys 2220 Physics for Sci. & Eng.

IIChem 1210 General Chemistry IChem 1215 General Chemistry

Lab I

Spring Semester

ECE 1250 Intro to Electrical and Computer Engineering DesignMath 1220 Calculus II Phys 2210 Physics for Sci. & Eng. I LEAP 1500 Leap Seminar for Engineers

ECE 2280 Fund. Engineering ElectronicsMath 2210 Calculus III ECE 3700 Fundamentals of Digital

& System Design ECE 2910 Sophomore Seminar American Institutions (or test)

WHAT COURSES DO EE STUDENTS TAKE?

Electrical and Computer Engineering October 2011

HANDS ON: EE AT THE U

Complete a hands-on interdisciplinary senior research project, many with industrial sponsors (1/2 of students get job offers from sponsor)

Hands-on learning: High % of laboratory courses

Electrical and Computer Engineering October 2011

Information & advising

More info:

www.ece.utah.edu

http://www.ece.utah.edu/bsee_handbook

Arlene Padilla ArenazMEB 3313, (801) 581-4657      Office hours: Monday - Thursday 8am-12pm, 1:30-4:00pm, Friday 8am - 12pm,

To make an appointment with the Electrical Engineering adviser, send an email to [email protected].

COURSE ADVISING IN EE

Electrical and Computer Engineering October 2011

EE CLASS OF 2011

46 of 53 graduates had job offers / grad school acceptance by graduation day

Many had multiple offers

Average reported starting salary: $59,000

Electrical and Computer Engineering October 2011

EMPLOYERS OF OUR GRADUATES

ATK

Bachtel Marine

Harman Signal Proc.

Hill AFB

Knolls Atomic Power

L-3 Communications

Micron

Moog Aircraft

Navsea

Northrop Grumman

Raytheon

Reliable Controls

Rio Tinto

Rocky Mtn. Power

Sorenson Communications

Varian Medical Syst.

Electrical and Computer Engineering October 2011

AVERAGE EE SALARIES BY INDUSTRY

Electrical and Computer Engineering October 2011

WHAT ARE EE CAREERS?

And more:

CEO / CTO

Patent Attorney

Researcher

Astronaut

Educator

Astronaut

Sports Technologist

Virtual Reality System Designer

Music Signal Processing Expert

OLPC Designer

Deep Space Telescope Imager Designer

Disaster Robot DeveloperFrom IEEE Spectrum “Dream Jobs 2011”, Feb 2011.

Electrical and Computer Engineering October 2011

WHY BECOME AN ELECTRICAL ENGINEER?

Love work AND live life, too Be creative, solve problems Work with great people Design things that matter Never be bored Make a big salary Enjoy job flexibility CHANGE THE WORLD

Electrical and Computer Engineering October 2011

SUSTAINABILITY AND ELECTRICAL ENGINEERING

Power Systems Solar cells Windmills Smart grid

Communications Telecommuting Internet Wireless communications

Materials Nano-scale devices Quantum dots Nanotubes

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QuickTime™ and a decompressor

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