GRADUATE PROGRAMS
Interdisciplinary programs promote intellectual
growth and offer distinct challenges to conventional thinking. They
address areas that are too broad or too complex to be dealt with
adequately by a single academic discipline. Interdisciplinary programs
are essential for the education of graduate students involved in
Technogenesis projects, i.e., projects concerned with the nurturing
of technology from concept to realization. It is also the case that
some interesting scholarly areas involve the blending of two or
more academic disciplines, e.g., management science juxtaposes operations
research and business. Students interested in an interdisciplinary
program at either the master's level or the Ph.D. level may proceed
as follows:
- The student outlines in writing the program that he or she
would like to undertake and submits it to the Dean of Graduate
Studies.
- If the Dean Graduate Studies approves the program, an interdisciplinary
advisory committee is appointed to study the program.
- If the committee accepts the program, the student and the committee
prepare a Study Plan and submit it to the Dean of Graduate Studies
for approval.
- One member of the committee is appointed to be the student's
Faculty Advisor and the committee performs the usual departmental
functions.
In addition, Stevens offers a variety of
specific interdisciplinary programs. These programs are described
below.
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Master of Science - Construction
Management
The construction management
curriculum offers an excellent opportunity for the construction
professional and the engineering manaager to direct construction
firms and projects in an effective, efficient and professional
manner while dealing with the delicate environmental issues of
today’s complex marketplace. The program consists of five core and
five elective courses of a practical nature, including those dealing
with financial, legal, safety and administrative aspects relevant to
the construction industry. Theory is integrated into realistic
problems that arise within today’s competitive construction arena.
The program has been designed with flexibility so that the student’s
interest in a special area can be satisfied. An undergraduate degree
in engineering or related disciplines from a recognized school is a
prerequisite for graduate study in construction management.
Core Courses
-
CM 509 Construction Cost
Analysis and Estimating
-
CM 541 Project Management
for Construction
-
CM 550 Construction
Contract Law I
-
CM 571 Practicum in
Construction Management
-
CM 580 Construction
Management I
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Master of Science - Information Systems
The following tracks are designed to meet
the increasing need for information technology professionals with
both managerial and technical skills. These interdisciplinary programs
involve the School of Technology Management and the Computer Science
department. For complete description and additional information
about the Master of Science - Information Systems program, please
refer to the School of Technology
Management section of the Catalog.
-
Computer Science Concentration
-
E-Commerce Technical Track
-
Information Security
-
Integrated Information Architecture Track
-
Quantitative Software Engineering Track
-
Systems Engineering Track
-
Telecommunications Management Track
Master of Science - Telecommunications
Management
The School of Technology Management administers
the interdisciplinary graduate program in Telecommunications Management.
This program, which leads to a Master of Science degree, is offered
jointly with the Department of Electrical and Computer Engineering.
A four-course graduate program leading to a Graduate Certificate
in Telecommunications Management is also available. Please refer
to the School of Technology
Management section of this catalog for a complete description
of this program and its courses.
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Integrated Product Development
The increasing demand placed on the military
and commercial sectors to improve the quality and reliability of
engineering systems while cutting costs in a rapidly changing technological
world are creating new challenges for industry and government personnel
responsible for planning and leading multidisciplinary product development
projects. The traditional disciplinary engineering programs do not
address the skill set, competencies, and practices needed for integrated
product development. The Charles V. Schaefer, Jr. School of Engineering,
a leader in engineering education, is offering both graduate certificate
and degree programs in Integrated Product Development that stress
the design, manufacture, implementation, and life-cycle issues of
engineering systems. The programs focus on innovative designs and
methodologies, and on new materials and process technologies in
new product development. The programs aim to provide an innovative
view of the landscape of product development to practitioners from
different engineering disciplines, to enhance their practice of
engineering today and to position them for career growth in the
global economy.
The Integrated Product Development degree
is an integrated Master of Engineering degree program focusing on
the integrated and multidisciplinary aspects of product development.
The core courses emphasize the design, manufacture, implementation,
and life-cycle issues of engineering systems. The remaining courses
provide a disciplinary focus. The program embraces and balances
qualitative as well as quantitative aspects, and utilizes state-of-the-art
tools and methodologies. It aims to educate students in problem-solving
methodologies, modeling, analysis, simulation, and technical management.
The program trains engineers in relevant software applications and
their productive deployment and integration in the workplace. A
full description of this program can be found in the Mechanical
Engineering department section.
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Microelectronics and Photonics Science
and Technology
The Physics and Engineering Physics, Electrical
and Computer Engineering (EcE) and Materials Engineering each offer
a Master of Engineering degree with an interdisciplinary concentration
in Microelectronics and Photonics Science and Technology. Students
are required to take the departmental degree core courses and EE/Mt/PEP
507 Introduction to Microelectronics and Photonics. A full description
of the program can be found in the Chemical, Biomedical and Materials
Engineering department section.
Product-Architecture and Engineering Program
The Master of Engineering in
Product-Architecture and Engineering degree program is intended to
integrate the study of Product Design, Computational Architecture
and Engineering with production methodologies and emerging
materials. The program is supported by The Product - Architecture
Lab. All students in the program must complete 10 courses (30
credits) comprised of five core courses and up to five elective
courses. Three of the five electives must be taken from the
recommended list (see below) of relevant graduate courses offered by
the mechanical engineering department. The remaining two courses (6
credits) constitute the student’s elective field and will consist of
at least one course of "600-level or higher" offered within the
Product-Architecture and Engineering program. Student may elect to
complete a Thesis (PAE 900: Thesis in Product-Architecture and
Engineering) in lieu of completing of the two open electives.
A Bachelor of Science degree in Engineering,
a BID, (BFA, BA, or BS) in Industrial Design, or a BArch (Bachelor
in Architecture) is needed for acceptance to the program. Applicants
with undergraduate degrees in other engineering or design
disciplines may be required to take appropriate undergraduate
courses before being formally admitted into the program.
Core Courses
-
PAE 610 The Creative Form and the
Digital Environment
-
PAE 620 The Creative Form and the
Production Environment
-
PAE 630 Introduction to Interactive
Digital Media
-
PAE 640 Performative Environments
-
PAE 800 Product Architecture and
Engineering Design Project
The recommended courses from the Mechanical Engineering
offerings are:
-
ME
520 Analysis and Design of Composites
-
ME 564
Principles of Optimum Design and Manufacture
-
ME 635 Simulation and Modeling
-
ME 566 Design for Manufacturability
In order to graduate with a Master of Engineering in
Product-Architecture and Engineering, a student must obtain a
minimum of "B" average in the major field as well as an overall
average of "B" in all the courses needed to meet the 30-credit
requirement for the degree. Please see the Office of Graduate
Studies section on Student Status.
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Doctoral Program (Interdisciplinary)
An interdisciplinary Ph.D. program
in Integrated Product Development may be arranged by the Dean of
Graduate Studies at the request of the student. To oversee and approve
such a program, the Dean of Graduate Studies, on the advice of faculty
responsible for the programs involved, will designate a professor
from each of the pertinent disciplinary areas to serve on a special
advisory committee. The committee chairman will ordinarily be the
professor who supervises research.
To earn a doctoral degree, a student needs to complete at least 90
credits of which at least 30 are thesis credits. The mix of credits
will be decided upon by the student's principal advisor. Doctoral
study plans typically include all core course subjects in concurrent
engineering.
Doctoral students are also required to
successfully complete two days of qualifying examinations. The first
day will be devoted to the concentrated area of study and will cover
topics studied in the core courses. The second day of examinations
will be organized by the student's doctoral committee and will include
selected topics from the student's focused area of concentration.
The student, with guidance from the student's doctoral committee,
will also present the thesis proposal and an oral defense of the
thesis as per the guidelines published in the Graduate Student Handbook.
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Interdisciplinary Ph.D. Program Involving Physics and
Materials
An interdisciplinary Ph.D. program is
jointly offered by the Department of Physics and Engineering Physics
and the Materials Program in the Department of Chemical, Biomedical
and Materials Engineering. This program aims to address the increasingly
cross-cutting nature of doctoral research in these two traditional
disciplines, particularly in the area of solid state electronics
and photonics and in the area of plasma and thin-film technology.
The interdisciplinary Ph.D. program aims to take advantage of
the complementary educational offerings and research opportunities
in these areas offered by both programs. Any student who wishes
to enter this interdisciplinary program needs to obtain the consent
of the two departments and the subsequent approval by the Dean
of Graduate Studies. The student will follow a study plan designed
by his/her faculty advisor(s). The student will be granted official
candidacy in the program upon successful completion of the qualifying
exam that will be administered according to the applicable guidelines
of the Office of Graduate Studies. All policies of the Office
of Graduate Studies that govern the credit and thesis requirements
apply to students enrolled in this interdisciplinary program.
Interested students should follow the normal graduate application
procedures through the Dean of Graduate Studies.
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The Systems Integration
Initiative: The System Design and Operational
Effectiveness Program
As part of
this initiative in the Charles V. Schaefer, Jr. School of
Engineering participants can pursue a number of interdisciplinary
graduate certificate programs leading to a Master’s degree (ME) or a
Doctoral degree in Systems Engineering. All graduate programs
offered through this initiative involve a multidisciplinary approach
to engineering education by providing a blend of engineering,
systems, and management subjects. The traditional engineer and
scientist often lacks preparation in the human, financial, and
systems integration skills necessary to make project teams more
productive, improve product and process quality, and promote the
advancement of high technology for complex systems. Our programs are
unique in that we strive to create an engineer who is well prepared
for a future in the conception, definition, architecting, modeling
and simulation, integration, sustenance, and management of modern
complex systems in a variety of market domains.
As technology
advances, systems tend to become more complex. Complexity can
greatly increase the cost of a system over its life cycle.
Short-term costs including research, design, test, and production
are only part of the life-cycle cost. Post-production costs
associated with system operation, maintenance, and support are often
70% to 80% of the total cost.
The
traditional approach to system design focuses on key performance
characteristics plus cost and schedule. Only near the end of design
is it determined exactly how the system-as-already-designed is to be
supported. This approach for complex systems compromises their
reliability, maintainability, and supportability, thus greatly
increasing total ownership costs. At the same time, users are
demanding more quality. That is, users want more reliability and
availability at a lower total cost.
An integrated
approach to system design and development can result in an improved
balance between system effectiveness and total ownership cost. Such
an approach must concurrently consider all aspects of the entire
life cycle of the system/product from design to manufacture,
maintenance, repair, and disposal; and bring potential cost drivers
to the attention of decision-makers early and in compelling
ways.
The Charles V.
Schaefer, Jr. School of Engineering, as a leader in engineering
education, is offering a graduate degree in Systems Engineering and
a variety of certificate programs that stresses system design,
modeling, analysis, operations, and life-cycle support. The program
objective is to provide an innovative view of the landscape of
system design to practitioners from different engineering
disciplines, to enhance their practice of engineering today, and to
position them for career growth in the global economy.
Uniqueness of the
Curriculum and Delivery Format in the System Design and Operational
Effectiveness (SDOE) Program
The curriculum in the SDOE Program
is focused on the requirements of system integrators across a
multitude of domains in the commercial and aerospace sectors. A
synopsis of the topical clusters is reflected in the figure. These
topical clusters were identified in collaboration with our partners
in the aerospace and defense, telecommunications, IT, and automotive
industries. Courses within the program address all these functional
clusters. A more detailed description of these clusters can be
obtained from the SDOE Program website (http://www.stevens.edu/engineering/sdoe).
The delivery mechanism of our
courses is also unique. All courses in our program are offered in a
unique week-long modular format or offered in a completely web-based
format. Modes of instruction of the SDOE program have been
structured to allow flexibility. The week-long modular format
minimizes time away from “home base” while live and intensive
weeklong courses, and associated group exercises, ensure development
of team building skills, leadership development, and the real-time
negotiation and tradeoffs that characterize reality. Participants
are given reading assignments prior to the instructional week.
Further, participants pursing a degree or graduate certificate have
ten weeks subsequent to the instructional week to complete their
homework assignments and projects.
Systems Engineering Master’s Degree in the
SDOE Executive Education Program
The Systems
Engineering degree is a multidisciplinary program that includes a
blend of engineering, systems thinking, and management subjects. The
increasing complexity of systems, the pervasive realities of global
competitiveness, the enhanced focus on cost and profitability, and
ever more challenging customer expectations have led a number of
premiere organizations in the defense and commercial sectors to
assume the role of system integrators. These organizations are
increasingly adopting an evolving business model that emphasizes the
selling of functionality, a solution, or a capability, instead of
focusing on selling and providing systems, system elements, and
products. The curriculum emphasizes the development of large-scale,
complex, and multifunctional systems in a number of domains, while
also addressing the requirements of time-to-market focused
organizations in the commercial sector. Core course in the SDOE
Program have a strong case study and project orientation to
facilitate understanding of the concepts discussed.
Admission to the SDOE program
generally requires an undergraduate degree in engineering or related
disciplines with a "B" average or better from an accredited college
or university. Outstanding applicants in other areas may be
conditionally admitted subject to the satisfactory completion of
several introductory courses within the program. Specific
requirements are determined on an individual basis depending upon
the student’s background. It is required that any applicants
requesting research assistantship appointments and applicants to the
Ph.D. program provide evidence of the ability to carry out
independent work. Examples of such evidence include the master's
degree thesis work and/or completed work-related projects. GRE
scores are not required, but may be submitted in support of the
application. International students must demonstrate their
proficiency in the English language prior to admission by scoring at
least 550 (210 for computer based) on the TOEFL examination.
Applications for admission from qualified students are accepted at
any time.
Graduates from this program will be
prepared to work effectively at the interface between engineering
and management and to assume professional positions of increasing
responsibility. The program consists of four core courses that must
be completed if the applicant is pursuing a Master’s or Doctoral
degree:
ALL students must take the following two
course sequence:
-
SDOE 625
Operational Effectiveness and Life Cycle Analysis
-
SDOE 650 System Architecture and
Design OR, the following two course
sequence:
-
SDOE 651 Agile Systems Engineering and
Architecting
-
SDOE 780 Agile Development
Strategies
Plus, two of the following four
options:
-
SDOE 611 Modeling
and Simulation or SDOE 670 Forecasting and Demand
Modeling
-
SDOE 612 Project Management for Complex
Systems
-
SDOE 660 Decision and Risk Analysis or SDOE 675
Integrated Supply Chains
-
SDOE 605 Systems Integration or SDOE 606
Accelerated Systems Integration and
Testing
A candidate may propose a
customized track of six elective courses leading to other
specialties with approval from a faculty advisor. At least two of
the electives must be taken from the SEEM/SDOE curriculum. Students
should review other sections of the graduate catalog for certificate
options. Students are encouraged to take an integrated four-course
sequence leading to a graduate certificate for the remaining four
electives or four additional courses in systems engineering. Many
certificates are offered on-line via web-based instruction.
Students in the SDOE
program are required to take either a 3-credit special project class
(SDOE 800) or a 6-credit hour thesis (SDOE 900). Students should
communicate with their academic advisor to develop a study plan to
coordinate the thesis versus the project options and to match the
student’s background, experience, and interests while satisfying the
requirements for any of the programs.
Doctoral Programs in Systems
Engineering
The programs leading to the
Doctor of Philosophy (Ph.D.) degree are designed to develop your
ability to perform research or high-level design in systems
engineering or engineering management. Admission to the doctoral
program is made through the departmental graduate admissions
committee and is based on review of your scholastic record. A
master’s degree is generally required before a student is admitted
to the doctoral program. Your master’s level academic performance
must reflect your ability to pursue advanced studies and perform
independent research. Typically a GPA of 3.5 or better is required
for admission to the Ph.D. program.
Ninety credits of graduate
work in an approved program of study beyond the bachelor’s degree
are required for completion of the doctoral program. Up to 30
credits obtained in a master’s program can be included toward the
doctoral degree. Of the remaining 60 credits, 15 to 30 credit hours
of course work as well as 30 to 45 credit hours of dissertation work
are required. Within two years from the time of admission to the
doctoral program, you must form a Doctoral Advisory Committee (DAC)
and take a written qualifying examination that is intended to test
your comprehension of undergraduate and master’s level engineering
fundamentals associated with your general dissertation topic
area.
The candidate’s graduate
advisor serves as the chair of the DAC, and the student should seek
the assistance of his/her advisor in identifying faculty who might
serve on the committee. The graduate committee should be composed of
those faculty members who can best assist the student in completing
his/her graduate research. Each member is added to the student’s
committee after consenting to serve. For the Ph.D., the advisory
committee must include a minimum of four members and its composition
consistent with those guidelines contained in the Graduate Student
Handbook. Committee members are expected to attend meetings as a
collective body. Under unusual circumstances, a member of the
committee may attend a meeting via video or telephone. However, a
student’s advisory committee must be physically present at all such
meetings. Faculty participation on graduate student committees is
considered to be an important part of SEEM faculty responsibilities.
To this end, full time SEEM faculty are expected to attend all
committee meetings for students they advise or on the committees
they serve.
The written and oral
components of the qualification examination must be successfully
completed by all Ph.D. students. The intent of the examination is to
establish that the student is qualified to pursue creative,
original, independent research at a level expected of Ph.D.
students. The written portion of the examination requires two weeks
for completion. The oral component of the examination is
administered two weeks after the completion of the written portion.
Students must be registered during the semester that the examination
is taken. Students may not schedule the qualification examination
until they have an approved Study Plan. The qualification
examination is administered by the student’s DAC and at most one
negative vote by a committee member is permitted for the successful
completion of the examination. All members of the student’s advisory
committee must attend the oral portion of the examination. If
performance on the examination is unsatisfactory, one full semester
must lapse (15 weeks) before the examination is administered a
second time. Students failing the examination twice will be
dismissed from the program. At the discretion of the committee, a
candidate may be allowed to change his or her degree option from a
Ph.D. to a Master's. The result of the examination is recorded on a
form furnished by the Registrar’s office on the day of the oral
portion of the examination. This form must be signed by each member
of the student’s advisory committee.
Students pursuing the Ph.D.
are required to complete research in the course of graduate study.
To initiate the research effort students are required to pass a
preliminary examination upon successful completion of the qualifying
examination. The student is required to prepare a research proposal
that describes the content of the research, the outcome anticipated,
the contribution to the field of endeavor, and the creative content
of the effort. This proposal must be in a written form and must be
presented to his/her committee at a meeting where all committee
members are present. Approval of the research effort is signified by
signatures of each committee member on the cover page of the
proposal. The signed research proposal must be delivered to the
SEEM/SDOE student records office for inclusion in the student’s
academic record. A student pursuing the Ph.D. degree should
demonstrate, through the dissertation, the ability to carry out
original and creative research. The results of the research should
be sufficiently significant to be publishable in a major technical
journal. The writing style, grammar, and spelling of the
dissertation should reflect a high level of skill in written
communication. Between the research proposal and the final
examination the student is required to provide at least one progress
report to his/her advisory committee at a meeting where all
committee members are present. The time of this meeting is
determined by the student’s DAC.
At the completion of the
research, you must defend your thesis in a public presentation.
Doctoral candidates are encouraged to hold a private defense with
his or her committee several weeks prior to the public defense. At
that time, the committee should raise issues with the candidate
prior to the public defense. The final examination must be scheduled
through the Registrar’s office, at least two weeks prior to its
administration. To pass the final examination, a degree candidate
must have a favorable vote from a majority of the examining/advisory
committee, with a maximum of one negative vote. If a student fails
the final examination, there must be a lapse of one full semester
(15 weeks) before rescheduling the examination. A student is allowed
no more than two opportunities to pass the final examination.
SDOE Graduate Certificate
Programs
All
graduate certificate programs require a minimum of 12 credit hours
of course work. An undergraduate degree in engineering or related
disciplines with a "B" average or better from an accredited college
or university is generally required for graduate study in any one of
our programs. Outstanding applicants in other areas may be
conditionally admitted subject to the satisfactory completion of
several ramp courses or introductory courses within the specific
program. The specific requirements will be determined on an
individual basis depending upon the student’s background.
International students must demonstrate their proficiency in the
English language prior to admission by scoring at least 550 (210 for
computer based) on the TOEFL examination. Applications for admission
from qualified students are accepted at any time.
Each of the graduate
certificate programs is a stepping stone towards the Master’s degree
in Systems Engineering.
Graduate Certificate in Agile Systems
Engineering
-
SDOE 651 Agile Systems Engineering and
Architecting: Methods, Processes and Practices
-
SDOE 606 Accelerated Systems Integration and
Testing
-
SDOE 655 Robust Engineering Design
-
SDOE 780 Agile Development Strategy
Graduate Certificate in Systems and
Supportability Engineering
-
SDOE 625 System Operational Effectiveness and Life
Cycle Analysis (SYS 625WS is the web-based version)
-
SDOE 640 System Supportability and Logistics
-
SDOE 645 Design for System Reliability,
Maintainability, and Supportability
-
SDOE 650 System Architecture and Design (SYS 650WS
is the web-based version)
Graduate Certificate in Systems Engineering
and Architecting
-
SDOE 625 Systems Operational Effectiveness and
Life-Cycle Analysis
-
SDOE 650 System Architecture and Design
-
SDOE 612 Project Management of Complex Systems or
Mgt 550 Introduction to Project Management (for students wishing
to obtain an additional certificate in Project
Management)
-
SDOE 605 Systems Integration
Graduate Certificate in Value Chain Enterprise
Systems
-
SDOE 640 Supportability and Logistics (SYS 640WS
is the web-based version)
-
SDOE 665 Integrated Supply Chains
-
SDOE 670 Forecasting and Demand Modeling Systems
or EM 744 Advanced Data Analysis and Forecasting or SYS 611
Modeling and Simulation
-
SDOE 675 Dynamic Pricing Systems or SDOE 660
Decision and Risk Analysis
Interdisciplinary Graduate Certificate
Programs
Atmospheric and Environmental Science and Engineering
(Interdisciplinary)
-
Pep 575 Fundamentals of Atmospheric
Radiation and Climate
-
CE 691 Introduction to Dynamic
Meteorology
-
ME 532/EN 506 Air Pollution Principles
and Control
-
EN 550 Environmental Chemistry and
Atmospheric Processes
Information Security
-
Mgt 645 CyberSecurity
Principles
-
Mgt 762 Enterprise Architecture for
Information
-
CS 573 Fundamentals of Computer
Security
-
CS 694 E-Business Security &
Information Assurance
Integrated Product Development
-
IPD 601 Integrated Product Development
I
-
IPD 602 Integrated Product Development
II
-
IPD 611 Simulation and
Modeling
-
IPD 612 Project Management and
Organizational Design
Pharmaceutical Manufacturing Practices
The Graduate
Certificate in Pharmaceutical Manufacturing Practices is an
interdisciplinary School of Engineering certificate developed by
the Department of Mechanical Engineering and the Department of
Chemical, Biomedical and Materials Engineering. This certificate
is intended to
provide professionals with skills required to work in
the pharmaceutical industry. The focus
is on engineering aspects of manufacturing and the design
of facilities for pharmaceutical manufacturing, within the
framework of the regulatory requirements in the
pharmaceutical industry.
The certificate is designed for technologists in
primary manufacturers, including pharmaceutical, biotechnology,
medical device, diagnostic, and cosmetic companies, as well as
in related companies and organizations, including architect/engineer/construction
firms, equipment manufacturers and suppliers, government agencies,
and universities.
(Interdisciplinary between Mechanical Engineering and Chemical
Engineering)
-
PME 530 Introduction to Pharmaceutical
Manufacturing
-
PME 531 Process Safety Management (ChE Graduate
Course)
-
PME 535 Good Manufacturing Practice in Pharmaceutical Facilities
Design
-
PME 540 Validation and Regulatory Affairs in Pharmaceutical
Manufacturing
and one of the following
electives:
-
PME 628 Pharmaceutical Finishing and Packaging
Systems
-
PME 538 Chemical Technology Processes in API
Manufacturing
-
PME 649 Design of Water, Steam, and
CIP Utility Systems for Pharmaceutical Manufacturing (M.E Graduate
Course)
Microelectronics
-
EE/MT/PEP 507 Introduction to Microelectronics and
Photonics
-
EE/MT/PEP 561 Solid State Electronics
I
-
EE/MT/PEP 562 Solid State Electronics
II
-
CpE/MT/PEP 690 Introduction to VLSI
Design
Microdevices and Microsystems
-
EE/MT/PEP 507 Introduction to
Microelectronics and Photonics
-
EE/MT/PEP 595 Reliability and Failure
of Solid State Devices
-
EE/MT/PEP 596 Micro-Fabrication
Techniques
-
EE/MT/PEP 685 Physical Design of
Wireless Systems
Any ONE elective in the three certificates above may be
replaced with another within the Microelectronics and Phototnics
(MP) curriculum upon approval from the MP Program Director.
Photonics
-
EE/MT/PEP 507 Introduction to
Microelectronics and Photonics
-
EE/MT/PEP 515 Photonics I
-
EE/MT/PEP 516 Photonics II
-
EE/MT/PEP 626 Optical Communication
Systems
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