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2008-2009 Undergraduate Bulletin
 
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Programs - Engineering Physics

   The department of physics and optical engineering has provided both science and engineering foundation at Rose-Hulman Institute of Technology though its physics and optics engineering programs. Physics is the foundation subject to all engineering and through the study in engineering physics we aim at blending a strong physics component with relevant engineering backgrounds that are usually necessary to work in areas such as semiconductor, optical technologies, biomedical applications, mechanical, electrical, and civil engineering, and polymer and biochemistry. The students will get their traditional undergraduate engineering education that has a broad foundation in mathematics, engineering sciences and technology. This program emphasizes problem solving skills and an understanding of engineering design to address the needs and challenges of the technology age and allow students to take a broad range of engineering careers.

   Engineering Physics at Rose-Hulman will provide students with a unique opportunity to learn the foundation concepts of physics and make a concentrated study in the following engineering disciplines: biomedical engineering, electrical engineering, mechanical engineering, optical engineering, and civil engineering. Students can also avail concentrations and expertise in materials sciences and polymer and biochemistry. Engineering physicist will be able to apply both scientific and engineering approaches to a wide variety of problems which otherwise is not possible with any traditional engineering or science degree. Rose-Hulman’s engineering physics graduates will be trained to take up challenging jobs in engineering and development of new technologies or to pursue further studies in engineering or physics.

Mission: To provide a coherent foundation of physics for all majors and a strong foundation of physics, engineering physics and optical engineering for our majors so that all students can acquire education appropriate to their majors. In the engineering disciplines of optical engineering and engineering physics enable students to practice in their dynamic and progressive engineering professional careers with responsibility to society.

Vision: To cultivate in the students responsibility, independence, and knowledge that allows them to be fully engaged in all disciplines, to continuously improve the curriculum, and  to be engaged in professional development.

Engineering Physics Program Educational Objectives and Outcomes:

In concurrence with the mission statement of the department the objective of the engineering physics program will produce graduate who will, 5 years after graduation, exhibit the following characteristic traits as a practicing engineer.

All engineering physics students will be prepared for initial employment, graduate school, or volunteer service and will meet the following objectives.

They will:

  1. Exhibit strong skills in problem solving, leadership, teamwork, and communication.

  2. Use these skills to contribute to their community and globally.

  3. Make thoughtful, well-informed choice in their projects and career.

  4. Demonstrate commitment to continuous education of themselves and of others.

  5. Be effective multi-disciplinary engineers/researchers (in their area of concentration) and problem solvers and be life long learner.

  6. Be educated in the principles of sciences and engineering necessary to understand systems in their concentration.

  7. Be able to use engineering tools that will allow them to design, analyze, and test systems.

  8. Be able to communicate effectively in oral, written, and graphical communications as needed in a multidisciplinary team..

  9. Be aware of the impact of their work in local and global environment.

By the time students graduate with an engineering physics degree from Rose-Hulman, we expect them to possess the following:

  • Knowledge of the Fundamentals: An understanding of the fundamentals of science and engineering

  • Interpreting Data: Ability to interpret graphical, numerical, and textual data.

  • System Level Modeling: Ability to model components and system optical engineering problems.

  • Experimentation: Ability to design and conduct experiments to understand the relationships between variables in a problem which may or may not have been mathematically modeled before.

  • Design: Ability to design a product or process to satisfy client's needs subject to constraints

  • Team work and Deliverables: Ability to work in multi-disciplinary teams and understand the effective team dynamics and be able to deliver a product.

  • Problem Solving: Ability to apply relevant scientific and engineering principles to solve real world optical engineering problems.

  • Professional Practice and Ethics: A sound understanding what an optics professional is and have an awareness and understanding of professional ethics.

  • Communication: Ability to communicate effectively in oral, written and visual forms.

  • Contemporary issues, non-technical issues, global awareness: An awareness of contemporary and non-technical issues in engineering profession and the role of professionals in an interdependent global society.

  • Life Long Learning: A facility for independent learning and continued professional development.

ENGINEERING PHYSICS

Freshman Year
Fall Term

Credit

MA
PH
CLSK
RH
EM
111
111
100
131
104
Calculus I ..............................
Physics I................................ College and Life Skills .........
Rhetoric and Composition ..
Graphical Communications .

 5
4
1
4
2

     


16

     
Winter Term

Credit

PH
MA
CHEM
CSSE
 
112
112
105
120
 
Physics II...............................
Calculus II.............................
Engineering  Chemistry I.....
Introduction to
   Software Development...
 4
  5
  4

  4
     


17

     
Spring Term

Credit

PH
MA
CHEM
OE
EM
113
113
107
172
103
Physics III .............................
Calculus III............................
Engineering  Chemistry II....
Optics and Technology*.....
Introduction to Design**

 4
5
4
2
2


15 or 17*

Sophomore Year
Fall Term

Credit

ES

PH
MA
PH
201

235
221
292
Conservation and
   Accounting Principles.......
Many Particle Physics ......... 
Differential Equations I........
Physical Optics.....................
 
  4
  4
  4
  4


16   

       
Winter Term

Credit

PH

ES
MA
ES
255

203
222
202
Foundations of Modern
   Physics................................
Electrical Systems ................
Differential Equations II.......
Fluid & Thermal Systems ....
 
  4
  4
  4
  3
     


15

       
Spring Term

Credit

HSS
OE
SL
ECE

295
151
200
Elective..................................
Optical Systems....................
Principles of Economics.......
Circuits & Systems...............

4
4
4
4

     


16

       
Junior Year
Fall Term

Credit

PH

HSS
PH

MA
ECE
316


405

223
361
Electric and Magnetic
   Fields....................................
Elective....................................
Semiconductor Materials
   and Devices  I ....................  Engineering Statistics I ........
Engineering Practice**.........
 
  4
  4
 
  4
  4
  2
   


16 or 18  

       
Winter Term

Credit

HSS
PH
RH

PH

317
330

406
Elective....................................
Electromagnetism .................
Technical and Professional Communication..
Semiconductor Materials
   and Devices II.....................
  4
  4
 
  4
 
  4
     


16

       
Spring Term

Credit

PH
OE
EP

EP
325
450
415
Advanced Physics Lab I.......
Laser Systems .......................
Engineering Physics
  Project I.................................
Elective....................................
  4
  4
 
  4
  4
     


16

 
Senior Year
Fall Term

Credit

EP

EP
HSS
416 Engineering Physics
  Project II..............................
Elective..................................
Elective..................................
Elective..................................
 
  4
  4
  4
  4
     


16

       
Winter Term

Credit

EP

HSS
EP
PH
417



401
Engineering Physics
   Project III.............................
Elective...................................
Elective.................................. Intro Quantum Mechanics...

  4
  4
  4
  4
     


16

       
Spring Term

Credit

HSS
EP
EP
EP


 
Elective..................................
Elective..................................
Elective..................................
Elective..................................
  4
  4
  4
  4
     


16

       
   

Total credits required:  193

     

*If students miss OE 172 in the freshmen or sophomore year, this requirement must be replaced with a 300 or 400-level OE course of at least 2 credits.

**Students need to take either EM 103 Introduction to Design or ECE 361 Engineering Practice.

EP 415, EP 416, and EP 417 are courses the student can take from any engineering department where the student has an area of concentration. The projects will have industrial clients that emphasize both physics and engineering and it may be jointly administered with the respective departments.

EP course descriptions listed under Physics Department.

Courses taken in the respective departments:
  Subjects

#Classes

Hours

  Physics (PH)
Math (MA)
Chemistry (CHEM)
Computer Science (CSSE)
EM 
CLSK
Engineering Science
Optical Engineering
Electrical & Computer Engineering (ECE)
HSS
Engineering Physics Electives (EP)
Engineering Physics Projects (EP) 
Free Elective
Total
12
6
2
1
2
1
3
3
2
9
6
3
1
50
48
27
8
4
4/2
1
11
10
4/6
36
24
12
4
193

 

SUMMARY OF GRADUATION REQUIREMENTS FOR ENGINEERING PHYSICS
1. All the courses listed above by the number.
2. The program must be approved by the advisor.
3. EP electives are RHIT courses that are part of the area concentration and must be approved by the advisor.
4. A technical electives is any RHIT course in chemistry, computer science, engineering, life sciences, mathematics, or physics
    
  Classes by Subjects

Hours

 
  Physics Coursework*
Chemistry and Mathematics Coursework**
Humanities and Social Science (Standard requirement)
Computer Science, EM, CLSK Courses
Engineering Science Classes
Engineering Classes
EP Electives (must be in the area of concentration)
EP Projects
Free Elective
Total

48
35
36
7 or 9
11
14 or 16
24
12
4
193

 
  
  Foundation Physics Classes
Course Description

Hours

 
PH 235
PH 255
PH 292
PH 316
PH 317
PH 325
PH 401
Total
Many Particle Physics
Foundations of Modern Physics
Physical Optics
Electric & Magnetic Fields
Electromagnetism
Advanced Physics Lab I
Introduction to Quantum Mechanics

4
4
4
4
4
4
4
28

 
 
General Foundation Classes    
Course Description

Hours

 
PH 111
PH 112
PH 113
MA 111
MA 112
MA 113
MA 221
MA 222
MA 223
CHEM 201 CHEM 202
Total
Physics I
Physics II
Physics III
Calculus I
Calculus II
Calculus III
Differential Equations & Matrix Algebra I
Differential Equations & Matrix Algebra II
Engineering Statistics
Engineering Chemistry I
Engineering Chemistry II

4
4
4
5
5
5
4
4
4
4
4
47

 
       
  Engineering Sciences Foundation
Course Description

Hours

ES 201
ES 202
ES 203
ECE 200
OE 172
OE 295
PH 405
PH 406
CSSE 120
Total
Conservation and Accounting Principles
Fluids and Thermal Systems
Electrical Systems
Circuits and Systems
Optics and Technology
Optical Systems
Semiconductor Materials and Devices I
Semiconductor Materials and Devices II
Introduction to Software Development
 

4
3
4
4
2
4
4
4
4
33

   
  Design Sequence    
Course Description

Hours

EM103/ ECE361   Introduction to Design/Engineering Practice

2

EP 415
EP 416
EP 417
Total
Engineering Physics Projects I
Engineering Physics Projects II
Engineering Physics Projects III
 

4
4
4
14

      
 

ENGINEERING PHYSICS AREA CONCENTRATIONS
Biomedical Engineering Concentration

Required courses:
Course Description

Hours

AB 110 Cell Structure and Function

4

AB 120 Comparative Anatomy & Physiology 4
BE 310 Analysis of Physiological Systems I 4
BE 320 Analysis of Physiological Systems II 4
  
  Plus three of the following:

 

 
Course Description

Hours

PH 302 Biophysics

4

OE 435/BE 435 Biomedical Optics

4

BE 330 Biomechanics 4
BE 340 Biomedical Instrumentation 4
BE 525 Biomedical Fluid Mechanics 4
BE 531 Biomechanics II 4
BE 534 Soft Tissue Mechanics 4
BE 539 Multiscale Biomechanics 4
BE 540 Biothermodynamics 4
BE 555 Electrophysiology 4
BE 560 Tissue-Biomaterial Interactions

4

And the research/design sequence
 
Electrical Engineering Concentration:
Course sequences for EE concentration
  Students are required to take:
Course Description

Hours

ECE 200
ECE 361
ES 201
ES 202
ES 203
Circuits & Systems
Engineering Practice
Conservation & Accounting Principles
Fluid & Thermal Systems
Electrical Systems
  

4
2
4
3
4

Plus the following courses:
Track 1:
Course Description

Hours

ECE 300
ECE 310
ECE 362
ECE 380
ECE 4xx
ECE 4xx
ECE 460
ECE 461
Signals & Systems
Communication Systems
Principles of Design
Discrete Time & Continuous Systems
Any course of 400 level
Any course of 400 level
Engineering Design I
Engineering Design II

4
4
4
4
4
4
4
6

    
Track 2:
Course Description

Hours

ECE 130
ECE 333
ECE 351
ECE 362
ECE 460
ECE 461
ES 205
 
Introduction to Logic Design
Digital Systems
Analog Electronics
Principles of Design
Engineering Design I
Engineering Design II
Analysis & Design of Engineering Systems
  

4
4
4
4
4
6
4

Materials Area Concentration:
  Required courses:
Course Description

Hours

PH 405
PH 406
Semiconductor Materials and Devices I
Semiconductor Materials and Devices II

4
4

PH 408 or
CHE 385/MA 385     Microsensors or Quality Methods

4

           
  Plus three of the following:
Course Description

Hours

OE 485
PH 330
PH 440
Electro-Optics & Applications
Material Failure
X-rays & Crystalline Materials

4
4
4

PH 410/ME 416/ECE 416/CHE 416/CHEM 410
          Introduction to MEMS: Fabrication & Applications

4

PH 411
CHE 314
CHE 315
CHE 440
CHE 441
CHEM 251
CHEM 252
CHEM 330
CHEM 456
CHEM 457
ECE 351
ECE 551 ECE 552 MA 381

MA 487
ME 328
ME 415
ME 424
Advanced MEMS: Modeling & Packaging
Heat Transfer
Materials Science & Engineering
Process Control
Polymer Engineering
Organic Chemistry I
Organic Chemistry II
Survey of Biochemistry
Polymer Chemistry I
Synthetic Polymer Chemistry
Analog Electronics
VLSI I: Design & Testing
VLSI II: Mixed-Signal IC Design
Introduction to Probability with Applications to Statistics
Design of Experiments
Materials Engineering
Corrosion & Engineering Materials
Composite Materials & Mechanics

4
4
4
4
4
4
4
4
4
4
4
4
4

4
4
4
4
4

        
Mechanical Engineering Concentration:
  Students are required to take:
Course Description

Hours

ES 201
ES 202
ES 203
Conservation & Accounting Principles
Fluid & Thermal Systems
Electrical Systems
4
3
4
            
Course sequences for ME concentration:
Course Description Hours
EM 120
ES 204
ES 205
EM 203
ME 301
   or
ME 302
ME 303
   or
ME 328
Engineering Statics
Mechanical Systems
Analysis & Design of Engineering Systems
Mechanics of Materials
Thermodynamics II

Heat Transfer
Kinematics of Machinery

Materials Engineering
4
3
4
4
4

4
3

4
      
  Design courses:
Course Description Hours
ME 450
ME 460
Engineering Design
Machine Design
4
4
          
Optical Engineering Concentration:
  Students are required to take:
Course Description Hours
OE 295
OE 450
PH 292
Optical Systems
Laser Systems & Application
Physical Optics
      
4
4
4
Course sequences for OE concentration:
  Required course:
Course Description Hours
OE 485 Electro-Optics & Applications
   
4
  Plus three of the following:
Course Description Hours
OE 393
OE 480
OE 493
OE 495
OE 499
Fiber Optics & Applications
Lens Design & Aberrations
Optical Network Systems
Optical Metrology
Senior Thesis
4
4
4
4
1-2
OE 435/BE 435 Biomedical Optics 4
  Design courses:
Course Description Hours
OE 415
OE 416
OE 417
  
Optical Engineering Design I
Optical Engineering Design II
Optical Engineering Design III
4
4
4

 

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