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HANDBOOK OF DOCTORAL PROGRAM IN MECHANICAL
ENGINEERING (PhD/ME):
ACADEMIC POLICIES & PROCEDURES
Department of Mechanical Engineering
The University of Texas at San Antonio
Fall 2016
PhD/ME Handbook – August 2016
2
I. Areas of Study
The Department of Mechanical Engineering offers advanced coursework integrated with
research leading to the Doctor of Philosophy degree in Mechanical Engineering. The program
has three concentrations: Thermal and Fluid Systems, Design and Manufacturing Systems,
Mechanics and Materials. The Ph.D. degree in Mechanical Engineering will be awarded to
candidates who have displayed an in-depth understanding of the subject matter and
demonstrated the ability to make an original contribution to knowledge in their field of
specialty.
II. Program Administration
The Doctor of Philosophy degree in Mechanical Engineering resides within the Department of
Mechanical Engineering. The Mechanical Engineering Graduate Studies Committee administers it.
The Graduate Studies Committee is responsible for curriculum enhancement, program
development and promotion, student recruitment, admission, and on-going program review and
provides input to the department Chair and the graduate faculty of the department.
The Graduate Advisor of Record (GAR) is appointed by the department Chair and with the
assistance of the Program Coordinator is responsible for the routine administration of the program,
advising students, maintaining records, and representing the Department in matters related to the
program. Questions about degree requirements and academic policies should be directed to the
Graduate Advisor of Record or the Program Coordinator.
III. Admission Requirements
The minimum requirements for admission to the Doctor of Philosophy in Mechanical
Engineering degree program are as follows:
Student must meet the university admission requirements as outlined in the graduate catalog.
Students whose native language is not English must have a satisfactory English test score
to meet the university admission requirements.
http://graduateschool.utsa.edu/international-students/gre-gmat-toefl-ielts/
Satisfactory GRE (Graduate Record Examination) scores, as evaluated by the
Graduate Studies Committee of the Department of Mechanical Engineering, are
required in combination with other criteria for admission to the Doctor of Philosophy
in Mechanical Engineering degree program at UTSA.
Normally, a student must hold a Master's degree in mechanical engineering or in a related
field with a GPA of 3.3 or better in both his/her undergraduate and graduate studies for
admission to the Doctor of Philosophy in Mechanical Engineering degree program at
UTSA.
4
Outstanding students, who do not hold a Master's degree, may enter the Doctor of
Philosophy program on provisional status directly upon receiving a bachelor's degree in
mechanical engineering or a closely related field, with the approval of the Graduate Studies
Committee. Such applicants must have a GPA of 3.5 or better in the last sixty (60) semester
credit hours of undergraduate coursework in mechanical engineering or a closely related field.
A student with provisional status must satisfy the provisional requirements within the first
two (2) years of study in order to proceed towards their Ph.D. degree. Provisional
Requirements, if any, will be determined by the Graduate Studies Committee.
The Graduate Studies Committee will evaluate each applicant, approve the necessary
requirements, and recommend corrective actions and admission on a case-by-case
basis.
IV. Financial Support and Graduate Assistantships
Financial support may be obtained through various sources and disbursed as a stipend, tuition
support, and Assistantship. Please be advised that unless a written agreement is made between
the funding source and student for a designated time period, financial support and assistantships
are not guaranteed each semester or year of your degree program.
In order to receive a stipend, tuition support, or a competitive scholarship, the student must be
registered for a minimum of 1 credit hour (including during the summer semester). Students who
have been offered an assistantship must be registered a minimum of 6 credit hours during the fall
and spring semesters, and 3 credit hours during the summer semester. The only exception to the
assistantship requirement is if it is the student’s final semester and their registration does not
meet the minimum credit hour requirement.
Stipend: If you receive a stipend, this means that the funding can be disbursed as
either a lump sum or on a monthly basis during the designated semester. Stipends
are provided by faculty members; therefore, the details of the disbursement are their
discretion. If there is an account balance, the stipend will always be applied first
and foremost to the account balance.
Tuition Support: Tuition support is generally provided by faculty members, and is
given to students specifically for their tuition. If the amount of the tuition support
exceeds the account balance, then the excess funding will not be paid to the student.
Faculty members can also choose to provide partial tuition support, and the student
will be responsible for their remaining account balance.
Graduate Assistantships: Financial support may be secured through a Research
Assistantship (RA) or a Teaching Assistantship (TA). Appointments are no more than
“half-time” or 20 hours of service per week. Generally, RA and TA appointments are
either 10 or 20 hours per week, but it is up to the discretion of the faculty member or
Mechanical Engineering Department the specifications of the appointment. If a student is
appointed for 20 hours per week, then they are qualified for in-state tuition. The financial
support for RAs is provided by individual faculty members from research grants, while
support for TAs is provided by the department. Applicants are encouraged to contact
faculty members to seek RA positions.
5
Competitive Scholarships: Competitive Scholarships are generally offered on a semester
basis by the Department of Mechanical Engineering, The Center for Advanced
Manufacturing and Lean Systems (CAMLS), and the College of Engineering. Recipients
of a competitive scholarship do earn qualification for in-state tuition, in addition to the
funding amount. Competitive scholarships are awarded on a competitive basis dependent
on merit credentials.
6
V. Degree Requirements and Program of Study
The degree requires 90 credit hours of course and research work beyond the bachelor’s degree or
60 credits beyond the master’s degree, and passing of Qualifying Examinations, Dissertation
Proposal, Dissertation Defense and acceptance of the Ph.D. dissertation.
Based on the 2015-2017 Graduate Catalog, required coursework and the timeline for expected
progress are given in Tables 1 and 2, respectively. In general, undergraduate courses, general
education courses, and prerequisites for graduate courses are not guaranteed to count towards
the required number of credit hours.
Table 1 Curriculum (60 credit hours A through E) Credit Hours
A. Common Core Courses (6 credit hours): ME 6113 Experimental Techniques in
Engineering (or contingent on approval, CE 5713 Experimental Stress Analysis) is
mandatory, with another one from the following list.
EGR 6013 Advanced Engineering Mathematics I
3
EGR 6023 Advanced Engineering Mathematics II
3
B. Technical Core Courses (9 credit hours): Students are required to take two courses (6 credits)
in their Major Area of study, and any one course (3 credits) from either of the remaining two
areas on the following list.
Thermal & Fluid Systems
ME 5243 Advanced Thermodynamics 3
ME 5613 Advanced Fluid Mechanics 3
Design & Manufacturing Systems
ME 5113 Advanced Systems Dynamics and Control 3
ME 5503 Lean Manufacturing and Lean Enterprises 3
Mechanics & Materials
ME 5413
ME 5713
Elasticity 3
Mechanical Behavior of Materials 3
Students are required to obtain a grade of ‘B’ or above for all the core courses.
C. Technical Elective Courses (9 credit hours): Students are required to take at least three (3)
elective courses in consultation with their PhD advisor. D. Seminar (1 credit hour is required to be taken in one semester)
ME 7991 Research Seminar 1
E. Doctoral Research (20 credit hours required) and Dissertation (15 credit hours required)
ME 7951-3 Doctoral Research 1-3
6
ME 7981-3 Doctoral Dissertation (after admitted for candidacy) 1-3
Table 2 Timeline of Progress
Progress To be Completed
Select PhD Advisor Within 9 credit hours
Pass Written Qualifying Examination Within 18 credit hours
Create PhD Supervisory/Dissertation
Committee
At least one month before dissertation proposal defense
Pass Dissertation Proposal
(A written proposal and an oral
presentation are required) to be
admitted as a PhD candidate
Time to be determined by the Supervising Professor and
the Dissertation Committee [27–45 credit hours].
Pass Dissertation Defense
(A written Dissertation and
Oral Examination)
After passing dissertation proposal. Time to be determined by the Supervising Professor (Advisor) and the
Dissertation Committee [> 60 credit hours].
VI. PhD Advisor
The program of study, as well as the selection of core and elective courses, must be
recommended by the student’s PhD Advisor. The courses taken by students are intended to focus
and support the individual’s mastery of his/her particular area of specialization. The PhD Advisor
must be a tenured or tenure-track faculty member of the Mechanical Engineering Department or
have an adjoint affiliation with the Mechanical Engineering Department.
VII. Written Qualifying Examinations
All students seeking a doctoral degree at UTSA must be admitted to “candidacy” in order to
become eligible to continue to the dissertation component of the PhD program. The
requirement for admission to candidacy is passing the qualifying examinations and
dissertation proposal. The qualifying examination of the PhD/ME program consists of
written questions in both common core and technical core as determined by the student’s
concentration area. The qualifying examinations will be administrated in June and January
every year. A student may be allowed to take the examination(s) pertaining to the subject(s)
a second time either in January or June the following semester/year, if they fail the first
time. However, no more than two attempts are permitted. Should a student fail the qualifying
exam for a second time, he or she will be dismissed from the doctoral program. The student
must follow the standard procedure to petition for reinstatement at the graduate level should
he or she wish to return to the doctoral program. At the department's discretion, students may
be reinstated to the MS degree. The process for petitioning for reinstatement is as follows:
A student who has been dismissed academically may petition for reinstatement after one long
semester (Fall or Spring) has elapsed from the date of dismissal. Under exceptional
circumstances, a petition may be considered earlier. Students are required to complete a
reinstatement packet along with a letter containing all explanations, recommendations, or
doctors’ statements in support of the student’s request for reinstatement and submit them to
the Dean of the Graduate School on or before June 15 for Fall Semesters, October 15 for
Spring Semesters, or March 15 for Summer Semesters.
7
The Graduate School prepares the petition for reinstatement and submits it to the Department’s
Graduate Program Committee. The Graduate Program Committee will review the petitioner’s
letter and academic record and make a recommendation concerning reinstatement to the Dean of
the Graduate School. If the Petition for Reinstatement is disapproved, the student may not file
another petition until the following semester.
Process of Written Qualifying Examination: The written qualifying examination is given in
June and January of each year. Upon approval by their PhD advisor, students wishing to take the
examination must submit their request using the designated form to the Program Coordinator
Graduate Advisor of Record before Oct. 31 (for January Exam) and March 31 (for June
Exam). The written examination will be administered in the first full week of June and the
second week of January each year. Normally, the written examination is taken by students who
have completed the coursework listed under sections A and B of the curriculum in Table 1 and
are in good standing. Students who fail the written qualifying examination in their first attempt
may petition for a second attempt. No more than two attempts are permitted to pass all subjects
of the qualifying examination.
The purpose of the qualifying examination is to ensure that students pursuing a doctoral degree
in Mechanical Engineering have the essential depth and breadth of knowledge basis in their
designated concentration area. The Department of Mechanical Engineering administers the
written qualifying examination in the following four areas with the supporting courses:
1. Common Core area
EGR 6013 Analytical Techniques in Engineering (Advanced topics in vector
calculus and linear algebra)
2. Technical Core area
a. Thermal & Fluid Systems (two subjects)
ME 5243 Advanced Thermodynamics
ME 5613 Advanced Fluid Mechanics
b. Design & Manufacturing Systems (two subjects)
ME 5113 Advanced System Dynamics and Controls
ME 5503 Lean Manufacturing and Lean Enterprises
c. Mechanics & Materials (two subjects)
ME 5413 Elasticity
ME 5713 Mechanical Behavior of Materials
7
The written qualifying examination includes two (2) parts: Part 1-Common Core Area, which
is mandatory for all students, and Part 2-Technical Core Area, which is based on the student’s
selected technical core area. The written exam is administered on the different areas in two days
of the first full week of June and the second week of January each year. The exam for each
area (Common Core, Thermal and Fluid Mechanics, Design and Manufacturing Systems,
Mechanics and Materials). The examinations are typically in the form of closed books and notes.
If needed, students will be provided a formula sheet.
The minimum (passing) grade for each area in the Common Core and Technical Core Areas
are 75% and 70% respectively. Students who do not score the minimum grade only on one of
the three exams may pass the qualifying exam requirement on a conditional basis with the
requirements (conditions) determined by the Graduate Program Committee. Students who pass the
written qualifying exam conditionally must satisfy all additional requirements before having
passed the written exam proceeding on to the proposal defense.
VIII. Dissertation Committee
The dissertation committee members are typically selected by the student in consultation with the
PhD advisor and approved by the Graduate Advisor of Record and the Department Chair. This
process should start as early as the time when the student has selected a PhD Advisor. The
dissertation committee must be finalized at least one month before the dissertation proposal
defense.
A dissertation committee includes the PhD advisor as the chair of the committee and a minimum
of four members. Of the four members, at least two must be Mechanical Engineering graduate
faculty members and one must be outside the department or UTSA, whose suitability will be subject
to approval of the Graduate School. Part-time faculty may serve as members of the dissertation
committee, but may not serve as PhD advisors.
9
IX. PhD Dissertation Proposal and Admission to PhD Candidacy
The student should first consider research topics for his/her dissertation, and then write a
dissertation proposal based on preliminary results. Normally, the dissertation proposal is
presented to the dissertation committee of the student within one year after passing the written
qualifying examination. During this time, students can take ME 7951-3 Doctoral Research
(Table 1, Section E). The dissertation proposal consists of quantifiable and verifiable
objectives, literature survey, methodology, preliminary work, deliverables, and expected
contribution.
A written dissertation proposal should be submitted to the student's dissertation committee at
least two weeks before the oral presentation. The dissertation proposal should:
Explain the basic idea of the dissertation topic
Describe why that topic is original, challenging, and important
Present an overview of the related work in the field
State what kind of results are expected, and present preliminary results, if any
Make a plausible argument that the study can be completed within a proposed time line.
The student should write the dissertation proposal as soon as he/she can address the issues
described above. The dissertation proposal should be typically single spaced and 25-30
pages long. A public presentation of the student's dissertation proposal will be arranged
and followed by a closed-door questioning by the dissertation committee.
The oral presentation is typically a 40-minute talk, followed by a question-and-answer session.
Following the public presentation, the dissertation committee will conduct a closed-door oral
examination based on the proposal and on relevant background from the student's Program of
Study. Only the dissertation committee members may attend the closed-door session. After the
examination, the student will be asked to leave, and the dissertation committee will discuss the
student's performance in the dissertation proposal presentation. The dissertation committee may
recommend changes before approving the dissertation proposal. No more than two attempts are
permitted for the student to get his/her dissertation proposal approved and be admitted as a PhD
candidate.
X. Final Oral Dissertation Defense
After the approval of the dissertation proposal and admission as a PhD candidate, the next steps
are writing the dissertation and passing the final oral defense. During this time, students should
register for ME 7981-3 Doctoral Dissertation (Table 1, Section E). The final oral defense is
administered and evaluated by the student’s PhD dissertation committee and covers the general
field of the dissertation. The final oral defense consists of a public presentation of the
dissertation, followed by a closed session with the members of the dissertation committee. It is
expected that the material of the dissertation will be of archival quality and will be published in
journals. The dissertation must be approved by a unanimous decision of the Dissertation
Committee.
XI. Registration
Students who attend classes at UTSA must be officially registered or approved to audit a
10
course. UTSA does not guarantee the availability of particular courses or sections, and
admission to classes is permitted only until the maximum number of students allowable in any
section has been reached. UTSA reserves the right to cancel any course or section in which the
number of registrants does not warrant its continuation
If a student encounters a restriction when registering for a course, please contact the Program
Coordinator in order to investigate the discrepancy. Students intending to register for ME 7951-
3: Doctoral Research and ME 7981-3: Doctoral Dissertation must send an email to their
faculty advisor requesting permission to be registered in the respective course. Once approval is
received, please forward the email to the Program Coordinator and you will be notified when
registration has been completed.
English Language Assessment Procedure:
o The English Language Assessment Procedure (ELAP) is a mandatory UTSA
assessment for incoming international student’s whose Test of English as a
Foreign Language (TOEFL) scores are between 500 and 600 (paper version) or
61 and 100 (Internet version). ELAP tests academic language skills in the areas
of reading, writing, listening, and speaking. The test is administered during
orientation week at no charge to the student. A registration hold is placed on
students until the test is successfully completed.
o Students who are required to take English for International Students (EIS)
classes and do not register for them or drop them before they are successfully
completed will be withdrawn from the University and will jeopardize their visa
status. Once students successfully complete the EIS classes, the registration hold
is removed from their record.
Auditing Courses:
o UTSA students and nonstudents who wish to audit a course may do so with the
approval of the instructor and the chair of the department in which the course is
offered, provided there is space in the classroom after all registered students
have been accommodated. The minimum enrollment in a course must be
reached without auditors.
o All auditors must submit a signed Audit Course Form to the Enrollment Services
Center, no sooner than the first day of class. A UTSA student pays an auditing
fee of $25 per course. Auditors who are not registered UTSA students must pay
an auditing fee of $50 per course. Persons over 65 years of age are permitted to
audit without paying an auditing fee
Cancellation of Enrollment:
o Students who fail to fulfill admission, registration, or financial requirements, or
who otherwise fail to adhere to academic regulations may have their enrollment
for the semester cancelled. Students may apply for readmission for a subsequent
semester provided they have resolved the cause of cancellation.
Dropping Courses:
o Students may drop courses from their schedules for a limited time each
semester. The online registration calendar for each semester indicates the
deadlines for students to drop courses each term.
o Courses officially dropped before the Census Date do not appear on a student’s
11
transcript. See the online registration calendar each semester for Census Dates.
o Students who drop courses between the Census Date and the Automatic “W”
Date have a record of the courses on their transcripts with an automatic grade of
“W.” See the online registration calendar for the Automatic “W” Date. The
change becomes official after it is processed by the Office of the Registrar.
o The Automatic “W” Date for graduate students is the end of the ninth week of
classes for Fall and Spring semesters, the end of the third week of classes for a
five-week Summer term, and the end of the sixth week of classes for a ten-week
Summer term.
o It is the student’s responsibility to drop a course by the appropriate deadline. If a
student fails to drop a course, even if the student does not attend the course, he
or she will receive a grade of “F” in the class.
o Faculty and staff will not drop a student from a course automatically for
nonattendance; the student must initiate the process and complete any necessary
steps to ensure that the class is dropped.
o Under certain circumstances, students may be dropped from courses
administratively by college deans. Students who do not meet course
prerequisites or who fail to attend a course prior to Census Date may be dropped
from courses. If a dean determines that a student should be dropped from a
course for these or other documented circumstances, the student will be notified
by the college overseeing the course. Students cannot assume that they will be
automatically dropped from any class for failure to attend or failure to pay
tuition and fees. Students are still responsible for dropping courses by the
official deadline or they will receive a grade of “F” in the class. Students are
responsible for checking their schedules on ASAP and for checking their official
UTSA e-mail accounts to determine if they have been dropped from a class.
o After the Automatic “W” Date, a student may not drop a course except with the
approval of the Dean of the college in which the course is offered and then only
for urgent and substantiated, nonacademic reasons.
XII. Student Travel Support
Travel financial support may be available by either a faculty member and/or the Department of
Mechanical Engineering. The Department of Mechanical Engineering is committed to providing
students with the opportunity to attend and participate in conferences, research opportunities, and
training workshops, contingent on the availability of funds.
In order to submit a request for travel support, please visit the Mechanical Engineering website >
ME Login > Online Request Tracking > Enter your UTSA email address > Type your login
credentials > Select: Students > Complete the four (4) Required Forms at the bottom of the page.
Once the four forms are completed, please print and submit to the Department of Mechanical
Engineering. The Department of Mechanical Engineering will inform you of the funding amount
you were approved for. After the conference, please submit ALL receipts you wish to be
reimbursed for to the Department of Mechanical Engineering.
12
Attachments: Map from UTSA to SwRI
Map of SwRI
IMPORTANT LINKS:
ME Department: http://engineering.utsa.edu/me/
ME Faculty: http://engineering.utsa.edu/me/faculty_staff/faculty.html
Graduate School: http://graduateschool.utsa.edu/
Graduate Catalog: http://utsa.edu/gcat/
13
14
15
ME 6113 is taught in Building 77
(No.18 on the map)
Main Gate
at Culebra Rd
Dr. Adel Alaeddini Big Data Analytics in Healthcare and Manufacturing Statistical Learning in Systems Modeling and Control
Dr. Kiran Bhaganagar Wind Turbine Modelling Turbulence Drone Fluids Interface
Dr. Pranav Bhounsule Mobile and Humanoid Robots Mechanism Design Mechatronics
Dr. Krystel Castillo Mathematical Modeling of Complex Systems Optimization Big Data Analytics Bioenergy Supply Chain Network Design
Dr. F. Frank Chen Lean manufacturing Flexible manufacturing Supply chain management
Dr. Bing Dong Energy Efficiency Smart Building Systems Building Controls & Diagnostics
Dr. Yusheng Feng Computational bioengineering Multi-scale simulation and control Cancer treatment modeling
Dr. Zhi-Gang Feng Multi-phase flow Computational fluid dynamics Heat and mass transfer
Dr. Ender Finol
Vascular biomechanics
Abdominal aortic aneurysms
Pulmonary hypertension
Non-destructive tissue mechanics
Dr. Wei Gao
Mech. behavior of materials, Low dim. materials
Biological and bio-inspired materials and structures
Computational material design
Adv. material manuf., characterization & testing
Dr. Hai-Chao Han
Cardiovascular biomechanics
Mechanical modeling & analysis
Tissue remodeling
Dr. Lyle Hood
Controlled Drug Delivery
Photothermal Therapies
Medical Device Design
Dr. Amir Karimi Metastable thermodynamics Phase change heat transfer Thermal systems
Dr. Amir Jafari Soft Robotics Physical-Human-Robot Interaction pHRI Exoskeletons and Prosthesis Devices
Dr. Ruijie Liu Hydraulic Fracturing and Geomechanics Micromechanics and Material Failure HPC for Multi-field and Multi-physics
Dr. Victor Maldonado Active Flow Control Experimental Aerodynamics Aircraft Dynamics and Control
Dr. Randall Manteufel Energy Efficiency Performance Assessment Thermal Fluid Systems
Dr. Harry Millwater Computational Mechanics Probabilistic Life Prediction Fatigue and Fracture
Dr. Brendy Rincon Troconis Stress corrosion cracking, Hydrogen embrittlement Coating adhesion, Passivation Localized corrosion, Atmospheric corrosion, Corrosion inhibitors
Dr. Can Saygin Manufacturing engineering Shop floor control and automation Distributed decision-making
Dr. HungDa Wan Six Sigma and Lean Systems Manufacturing Systems Engineering Digital Manufacturing and 3D Printing
Dr. Xiaodu Wang Tissue Biomechanics Age and Disease Related Fragility Fractures Bioinspired Design/Synthesis of Nanocomposites
Dr. Justin Wilkerson Theoretical and Computational Mechanics Materials in Extreme Environments Multifunctional Nanomaterials
Dr. Xiaowei Zeng Computational Biomechanics Multiscale Modeling & Simulation Nanomechanics
Ph.D. in Mechanics/Materials
Mechanics Materials
Common Core EGR 6013: Advanced Engineering Mathematics I
ME 6113: Experimental Techniques in Engineering
Technical Core ME 5413: Elasticity
ME 5713: Mechanical Behavior of Materials
Suggested Technical Core
EGR 6023: Advanced engineering math II
ME 6043: Continuum Mechanics
Prescribed Computational Mechanics and
Material Science Electives
BME 6343: Statistical pattern recognition and data mining in BME
BME 6243: Mechanobiology
CE 5153: Numerical Methods in CE BME 6963: Fund. to polymer science
CHE 5833: Computational chemistry MATE 5103: Principles of Materials Engineering
CS 5233: Artificial intelligence MATE 5233: Anisotropy and crystalline materials
CS 5473: Data mining ME 5013: Topics in Corrosion
EE 5103: Engineering programming ME 5013: Topics in Fatigue & Fracture
EGR 5023: Numerical tech. in Eng. Analysis ME 5743: Composite Materials
EGR 5703: Advanced scientific visualization ME 6663: Advanced Fatigue & Fracture
EGR 5713: High Performance Computing ME 6813: Biomaterials
ME 5483/CE 5023: Finite Element Methods ME 6xxx Computational Materials
ME 5013/CE 5713: Non-linear finite elements PHY 5303: Statistical mechanics
ME 6xxx Non-linear Comp. Mechanics PHY 5403: Quantum mechanics I
ME 6xxx Advanced Comp. Methods (Prereq.: HPC) PHY 6313: Solid state physics
PHY 6523: Computational physics
PHY 7603: Topics in condensed matter physics
ME 5013: Special Topics
ME 6973: Special Problems
Prescribed Mathematics
Electives
EGR 6023: Advanced engineering math II
EGR 6033: Linear and mixed integer optimization
MAT 5283: Linear algebra and matrix theory
MAT 5293: Numerical linear algebra
MAT 5673: Partial differential equations I
MAT 5683: Partial differential equations II
MAT 5833: Perturbation theory in applied mathematics
Prescribed Mechanics of
Solids Electives
BME 6823: Advanced biomechanics
BME 6863: Mechanical behavior of living tissues
CE 6153: Adv. mech. & modeling of struct. mats
ME 5153: Structural Dynamics
ME 5453: Advanced Strength Materials
ME 5463: Fracture Mechanics
ME 5473: Viscoelasticity
ME 6833: Biomechanics
ME 6893 Topics in Biomechanics
ME 6xxx Impact Mechanics
ME 6xxx: Plasticity
ME 6xxx Tribology
ME 6xxx Wave Propagation
Prescribed Experimental and
Probabilistic Mechanics Electives
CE 5713: Experimental stress analysis
MATE 5213: Sensing and sensor materials
MATE 5513: Fund. of microfabrication and applications
ME 5543 Probabilistic Engineering Design
ME 5883: Intro to micro and nanotechnology
ME 6113 Experimental Techniques
Suggested Prescribed Electives
PHY 6133: Introduction to scientific writing
Ph.D. in Thermo-Fluids
Common Core EGR 6013: Advanced Engineering Mathematics I
ME 6113: Experimental Techniques in Engineering
Technical Core ME 5243: Advanced Thermodynamics
ME 5613: Advanced Fluid Mechanics
Prescribed Thermal Electives
EGR 5703: Advanced Scientific Visualization
ME 5013: Special Topics
ME 5263: Combustion
ME 5303: Heat Transfer
ME 5343: Convection
ME 5653: CFD
ME 6333: Conduction
ME 6853: Advanced CFD & Heat Transfer
ME 6973: Advanced Energy System (HVAC and building system) (New)
ME 6973: Special Problems
Prescribed Fluid Electives
BME 6813: Bio-fluids
EGR 5703: Advanced Scientific Visualization
MAT 5833: Perturbation Theory in Applied Mathematics.
ME 5013: Special Topics
ME 5633: Compressible Flows/Aerodynamics
ME 5653: CFD
ME 5753: Turbulence
ME 6973: Special Problems
Prescribed Mathematics
Electives
EGR 6023: Advanced engineering math II
EGR 6033: Linear and mixed integer optimization
MAT 5283: Linear algebra and matrix theory
MAT 5293: Numerical linear algebra
MAT 5673: Partial differential equations I
MAT 5683: Partial differential equations II
Milestones Agreement Form for PhD in Mechanical Engineering This form is provided for the purpose of informing students about the academic milestones that they will be expected to reach in order to earn their Ph.D. degree in Mechanical Engineering as well as when they are expected to complete these milestones. Students are expected to reach each milestone within the specified time period in order to make satisfactory progress through the program. Students who are not making satisfactory progress may lose funding, be placed on academic probation, or be dismissed from the program.
Academic Advising Upon entering the PhD in Mechanical Engineering program, all students are assigned to the Graduate Advisor of Record within their first 9 credit hours of program of study. During their first 9 credit hours, all students must select their PhD advisors. The entire program of study, as well as the selection of major and minor areas, must be recommended by the student’s PhD Advisor by the end of 9 credit hours of the student’s coursework, approved by the Graduate Studies Committee, and must be submitted to the Dean of the Graduate School for final approval. The courses taken by students are intended to focus and support the individual’s mastery of his/her particular area of specialization. The PhD Advisor must be a tenured or tenure-track faculty member of the Mechanical Engineering Department.
Academic advising includes the following elements that are designed to ensure that students remain in good academic standing and make satisfactory progress through the program. Advisors are responsible for the following:
Ensuring that annual reviews between student and advisor and/or supervising
committee occur. The results of this review will be included in the program’s annual
doctoral progress report.
Providing suggestions on course selection
Reviewing the student’s program of study to determine if the student is making
progress consistent with the expectations of the program and reaching milestones
according to the timeline provided on this form; working with the Doctoral Studies
Committee and student to determine if modifications are necessary
Clarifying the timetable for completing any remaining course requirements,
examinations, and other requirements
Providing the student with assistance in understanding the requirements for
successful completion of dissertation
Providing the student with assistance in assembling a dissertation committee
Providing the student with experiences and information that will optimize the
student’s career opportunities and success
Requirements for all Students in the PhD in Mechanical Engineering Program
Progress To be Completed Select PhD Advisor Within 9 credit hours
Pass Written Qualifying Examination Within 18 credit hours
Form PhD study committee At least one month before dissertation proposal
defense Pass Dissertation Proposal
(A written proposal and an oral
presentation are required) and be
admitted to be PhD candidate
Time to be determined by the Supervising Professor and the Dissertation Committee (27-45
credit hours)
Pass Dissertation Defense
(Oral Examination)
After passing dissertation proposal. Time to be determined by the Supervising Professor and the
Dissertation Committee (>60 credit hours)
Degree Completion Checklist for Students Maintain active student status by registering for courses every fall and spring semester
(may also include summer depending on program-specific requirements)
Complete Milestones Agreement Form with your advisor no later than the last class day of
the Spring semester
Complete all required organized coursework
Schedule and successfully complete required qualifying exams
Form your dissertation committee in consultation with your advisor and dissertation
Chair
Have your committee approved by program GSC and Graduate School
Prepare and successfully present your dissertation proposal
Apply for Advancement to Candidacy
Enroll in required dissertation hours and complete your dissertation
Successfully complete your defense of your dissertation
Submit required documentation to the Graduate School for completion and graduation
I have read this form and have had the opportunity to discuss the information contained in it with my advisor. I have the recent “PhD/ME Student Handbook”. I understand the academic milestones that I am expected to reach in order to successfully complete the PhD in Mechanical Engineering program, as well as the expected timeline for completing these milestones.
______________________________________ ___________________ Student’s Signature Date
______________________________________ ___________________ Advisor’s Signature Date