Standards
and requirements for Degrees in the School of Science and Computer Engineering
Standards
for Graduate Degrees
Graduate Degree Options
Division
of Computing and Mathematics
Requirements
and Standards for Plans in Computing, Mathematical Science and Statistics
Participation
with PhD Degree at Texas A&M University
Mathematical
Science and Statistics Degrees
Dual
Master Degrees of Mathematics and Statistics
Requirements
and Standards for Plans in Engineering.
Software
Engineering via Distance Education (Online)
Software
Engineering Certificate
Systems
Engineering Certificate
Collaborative
UHCL/UH Physics Ph.D. Program
Following admission to the university, students' transcript evaluations are forwarded to the Office of Student Advising. All graduate plans require that faculty admissions committees review the students' files and determine whether students will be accepted into degree plans. Students are notified of their admission status by the associate dean. Once accepted to a degree plan, students meet with academic advisors at New Student Orientation to obtain detailed instructions about completing a Candidate Plan of Study (CPS). The CPS delineates specific requirements of a study area and must be completed during the semester of acceptance into a degree plan.
In general, no more than 9 hours for a graduate degree taken at University of Houston-Clear Lake prior to completion of a CPS may be applied toward any degree in the school. These hours, along with the hours accumulated during the semester the CPS is being finalized, will be evaluated for acceptance by the faculty advisor and approved by the associate dean.
The Graduate Record Exam (GRE) is required of all students applying for admission to a graduate plan in the school. Computer Information Systems is the only plan that accepts Graduate Management Admission Test (GMAT) in lieu of the GRE. It is recommended that students who apply for admission to a graduate plan have a grade point average (GPA) of at least 3.000 (four point grade scale) on the last 60 hours of course work. GRE scores will be evaluated by the degree plan's admissions committee and will be used as one of the indicators of the applicant's potential for completion of the plan to which he/she has applied. Individual degree plans may specify additional qualifications (see individual plan descriptions).
All graduate degrees in the
Students selecting the thesis option must select a committee
and submit a formal thesis proposal to the Office of the Dean prior to
enrolling for thesis courses. The thesis committee will consist of at least
three members, two of whom must be full-time UHCL faculty members. A fulltime
faculty member of the
Students must register for the appropriate thesis research course no later than the first long semester after the dean has accepted the proposal. See the Master's Degree Option: Master's Thesis section of this catalog for more information.
University and SCE guidelines and procedures relating to the graduate thesis committee, thesis proposal, the thesis document and defense are described in the Graduate Thesis Guidelines and Procedures Manual available in the Office of the Dean.
All graduate plans in the school offering this option require a capstone course. See the particular plan area for the specific extended course work option requirements.
Some plans offer an internship option. See the particular plan of interest.
Some plans offer a research project course option. See the particular plan of interest.
Students desiring to study in the computing and mathematics may choose any one of five undergraduate or four graduate plans. Applicants should consult the chair of the division for additional information.
Students seeking graduate degree candidacy should have a bachelor's degree in a related field. To be accepted for degree candidacy, students should be within 15 hours of completing upper-level foundation courses. These courses are listed in the particular degree area in the catalog. All foundation courses must be completed within one calendar year of first graduate registration at UHCL. Students needing more than 15 hours of upper-level foundation courses are encouraged to complete a second bachelor's degree.
Graduate studies in Computer Information Systems lead to a master of science (MS) degree. This plan is designed to prepare students for key technical, administration and management positions in the analysis, design, implementation, maintenance, operation and management of industrial and commercial computer information systems.
Students aspiring to graduate degree candidacy must have a bachelor's degree in a related area and a background in Computer Information Systems. Preparatory requirements are proficiency in at least two high level languages, including an object-oriented programming language such as Java, C++ or C#, and the following undergraduate course:
Calculus I or Business Calculus
Upper-level foundation course requirements:
|
CSCI |
4333 |
Design of
Database Systems |
|
CSCI |
3331 |
Comp Org &
Assembly Lang |
|
MATH |
3331 |
Discrete
Mathematics |
|
CSCI |
3333 |
Data Structures |
|
SWEN |
4432 |
Software
Engineering |
|
CINF |
3331 |
Business Data
Communications |
|
CSCI |
4230 |
Web App
Development |
|
(or CENG 3331 +
CENG 3311) |
||
None of the above courses may apply to the graduate degree.
Students may select from the thesis option or the extended course work option. The thesis option requires 33 credit hours of graduate work and the extended course work option requires 36 credit hours.
The following courses, or approved substitutions are required for both the thesis option and extended course work options:
|
CSCI |
5132 |
Internet
Protocols |
|
CSCI |
5333 |
Database
Management Systems |
|
CSCI |
6530 |
Research
Methods in Computer Science |
|
CENG/CINF/CSCI/SWEN
or other approved related courses |
6 hours |
|
CINF/CSCI
4000-6000 level |
3 hours |
|
*CINF/CSCI
courses, 5100-6000 level |
9 hours |
|
CSCI 6939
Master's Thesis Research |
6 hours |
* Students interested in pursuing the thesis option are encouraged to take CINF 5939 (Independent Study in CIS) during their first year, in order to write up their thesis proposals (with the sponsoring of a faculty advisor).
Students desiring to follow the extended course work option must successfully complete the capstone project course (CINF 6838).
|
CENG/CINF/CSCI/SWEN
or other approved related courses |
6 hours |
||
|
CINF/CSCI |
4000-6000 |
6 hours |
|
|
CINF/CSCI |
5100-6000 |
12 hours |
|
|
CINF |
6838 |
Research
Project and Seminar |
3 hours |
|
|
(taken after
completion of the required core and during last 12 hours) |
||
Students interested in developing a sub-plan in Database Systems and Web-based Systems should take the following electives:
|
CSCI |
5433 |
Object-Oriented
Database Systems |
|
CSCI |
5533 |
Distributed
Information Systems |
|
CSCI |
5633 |
Web Database
Development |
|
CSCI |
5733 |
XML Application
Development |
|
CSCI |
5833 |
Data Mining:
Tools and Techniques |
Students interested in developing a sub-plan in Networking and Security should take the following electives:
|
CENG |
5333 |
Network
Performance Analysis |
|
CSCI |
5233 |
Computer
Security and Integrity |
|
CSCI |
5234 |
Web Security |
|
CSCI |
5235 |
Network
Security |
|
CSCI |
5431 |
Client-Server
Based Network Programming |
|
CSCI |
5531 |
Advanced
Operating Systems |
Suggested Plan of Study (for students in the Thesis Option)
The following study plan for the four regular semesters is recommended as a typical example for incoming full-time CIS students who plan to pursue the Thesis option. Individual study plans may vary as long as the prerequisite structures are satisfied. Students should seek the advice of their assigned faculty advisor and set up their Candidate Plan of Study (CPS) as early as possible.
|
CSCI 5132 |
Internet
Protocols |
|
CSCI 5333 |
Database
Management Systems |
|
CINF/CSCI |
4000-6000 level |
|
CINF/ CSCI |
5000-6000 level |
|
CSCI 6530 |
Research
Methods in Computer Science |
|
CINF/CSCI 5939 |
Independent
Study |
|
CENG/CINF/SWEN
or other approved related courses |
|
|
CINF/CSCI |
5100-6000 level |
|
CINF/CSCI 6939 |
Master's Thesis
Research |
|
CINF/CSCI |
5100-6000 level |
|
CINF/CSCI 6939 |
Master's Thesis
Research |
The plan in Computer Science leads to the master of science (MS) degree. This plan is designed to prepare students to hold key technical positions in the development of computer-based solutions to complex systems problems.
Students seeking admission into the degree plan in Computer Science must have a bachelor's degree in computer science or a closely related area and extensive background in computer science. It is expected that the minimum GRE score required for acceptance into the plan be reasonably balanced among the different components of the GRE exam. Students with bachelor's and master's degrees in related fields of study will be required to complete appropriate background courses. The admissions committee, during evaluation of the student's application, will designate courses to be completed before beginning graduate studies. Preparatory requirements include proficiency in at least two modular computer programming languages, including C or C++, plus the completion of the following undergraduate courses, their equivalents or successful completion of equivalence exams upon approval from the admissions committee.
Calculus II (Not offered at UHCL)
|
CENG |
3511 |
Lab for
Computer Architecture |
|
CSCI |
4333 |
Design of
Database Systems |
|
CENG |
3531 |
Computer
Architecture |
|
CSCI |
4534 |
Operating
Systems |
|
CSCI |
3331 |
Comp Org &
Assembly Lang |
|
MATH |
3131 |
Introduction to
Linear Algebra |
|
CSCI |
3333 |
Data Structures |
|
SWEN |
4432 |
Software
Engineering |
|
CSCI |
3532 |
Adv Data
Structures & Algorithms |
Additionally, at least two of the following must be completed:
|
CSCI |
3231 |
Numerical
Methods |
|
PHYS |
3032 |
University
Physics II |
|
MATH |
3331 |
Discrete
Mathematics |
|
MATH |
3334 |
Probability and
Statistics for Scientists & Engineers |
|
MATH |
4131 |
Ordinary
Differential Equations and Applications |
None of the above courses may apply towards the graduate degree.
Students should consult with their faculty advisor to determine if they have sufficient background to satisfy a specific course prerequisite. Foundation and prerequisite courses should be completed before enrolling in any graduate course.
Students expecting credit for foundation courses completed at international institutions must submit course descriptions. This will allow proper evaluation and appropriate credit.
Students may select from the thesis option or the extended course work option. The thesis option requires 33 credit hours of graduate work. The extended course work option requires 36 credit hours.
The following courses or their approved substitutions are required for both the thesis and the extended course work options:
|
CSCI |
5333 |
Database
Management Systems |
|
CSCI |
5531 |
Advanced
Operating Systems |
|
CSCI |
6530 |
Research
Methods in Computer Science |
One of the following:
|
CSCI |
5232 |
Concepts of
Programming Languages |
|
CSCI |
5432 |
Design and
Analysis of Algorithms |
Required courses for thesis option.
|
CSCI/CINF/SWEN/CENG/SENG
4000-6000 |
3 hours |
|
CSCI electives |
3 hours |
|
CSCI/CINF
electives |
3 hours |
|
CINF/SWEN/CENG/SENG
electives |
6 hours |
|
CSCI 6939
Master's Thesis Research |
6 hours |
Complete the following courses:
|
CSCI/CINF/SWEN/CENG/SENG |
4000-6000 |
6 hours |
|
CSCI electives |
5100-6000 |
6 hours |
|
CSCI/CINF
electives |
5100-6000 |
6 hours |
|
CINF/SWEN/CENG/SENG
electives |
|
3 hours |
|
CSCI 6838 |
Research
Project and Seminar |
3 hours |
NOTE: CSCI 6838 MUST BE TAKEN DURING THE LAST 12 HOURS, AFTER COMPLETION OF CSCI 5531 AND CSCI 5333.
Students interested in developing a sub-plan should take the corresponding courses listed below:
Sub-plan in database systems:
|
CSCI |
5433 |
Object-Oriented
Database Systems |
|
CSCI |
5533 |
Distributed
Information Systems |
|
CSCI |
5633 |
Web Database
Development |
|
CSCI |
5733 |
XML Application
Development |
|
CSCI |
5833 |
Data Mining:
Tools and Techniques |
Sub-plan in Network Performance and Security:
|
CENG |
5333 |
Network
Performance Analysis |
|
CSCI |
5132 |
Internet
Protocols |
|
CSCI |
5233 |
Computer Security
and Integrity |
|
CSCI |
5234 |
Web Security |
|
CSCI |
5235 |
Network
Security |
|
CSCI |
5631 |
N-Tiered
Client-Server Architectures |
Sub-plan in Data Mining and Computational Bioinformatics:
|
BIOT |
5733 |
Bioinformatics |
|
CENG |
5634 |
Artificial
Neural Networks |
|
CSCI |
5530 |
Pattern
Classification |
|
CSCI |
5532 |
Pattern
Recognition and Image Processing |
|
CSCI |
5833 |
Data Mining:
Tools and Techniques |
|
CSCI |
5933 |
Computational
Bioinformatics |
The Computer Science Department of
The graduate plan in Mathematical Science leads to the master of science (MS) degree. Applicants for candidacy should have a bachelor's degree in mathematics. Students with other degrees may apply if their preparation includes a substantial number of advanced credits in mathematics. In some cases, additional preparatory courses may be required.
Undergraduate Foundation Courses for Masters in Mathematics
Introduction to Probability (may be waived with advisor's consent if undergraduate real analysis is successfully completed before enrollment in STAT 5431 Theory and Application of Probability.
With advisor's approval, two of the following may count towards the Master's Degree if taken as a graduate student at UHCL: MATH 4431 (Introduction to Analysis) and MATH 4232 (Introduction to Abstract Algebra) or MATH 4133 (Introduction to Topology). [Provided that equivalent courses have not been completed previously]
Course selections will be arranged in consultation with a faculty advisor while preparing the CPS. Students selecting the extended course work option must complete MATH 6837 (Research Project 1). This is to be taken after successfully completing nine hours of core and during the last 9 hours of course work. MATH 6838 (Research Project II) can be completed following MATH 6837 with faculty adviser approval prior to registration.
|
MATH |
5131 |
Abstract
Algebra |
|
MATH |
5136 |
Ordinary
Differential Equations & Dynamical Systems |
|
MATH |
5132 |
Real Analysis |
Students will select three courses from the following seven:
|
MATH |
5134 |
Logic |
|
MATH |
5333 |
Numerical
Analysis |
|
MATH |
5231 |
Linear Algebra |
|
MATH |
5330 |
Mathematical
Software & Modeling Simulation |
|
MATH |
5137 |
Topology &
Geometry |
|
STAT |
5431 |
Theory and
Application of Probability |
|
MATH |
5431 |
Mathematical
Modeling in the Applied Sciences |
|
MATH, STAT
courses, 5000-6000 level |
6 hours |
|
Electives,
5000-6000 level courses |
6 hours |
|
MATH 6939
Master's Thesis Research |
6 hours |
|
MATH, STAT
courses, 5000-6000 level |
6 hours |
|
Electives,
5000-6000 level courses |
6 hours |
|
MATH Electives,
4000-6000 level |
3 hours |
|
MATH 6837
Research Project I |
3 hours |
The plan in Statistics leads to a master of science (MS) degree. This plan emphasizes a curriculum that is designed to educate students in the theory and application of statistics. The plan is suitable for students with an undergraduate background in mathematics, engineering or the sciences.
Students with degrees in engineering, science or other fields will be considered if their preparation includes an adequate number of upper-level credits in mathematics and statistics. In some cases, additional preparatory courses may be required.
The following courses or their approved substitutes are required:
|
MATH |
5231 |
Linear Algebra |
|
STAT |
5532 |
Linear Models
& Regression Analysis |
|
STAT |
5431 |
Theory &
Application of Probability |
|
STAT |
5533 |
Statistical
Computing with SAS & S-Plus |
|
STAT |
5432 |
Theory &
Applications of Statistics |
|
STAT |
5531 |
Multivariate
Statistical Analysis |
|
STAT courses,
5000-6000 level |
3 hours |
|
Electives,
5000-6000 level |
3 hours |
|
MATH or STAT
electives, 4000-6000 level |
6 hours |
|
STAT 6939
Master's Thesis Research |
6 hours |
Students desiring to follow the extended course work option must complete STAT 6837 and STAT 6838 during the last 18 hours of course work.
|
STAT courses,
5000-6000 level |
3 hours |
|
Electives,
5000-6000 level |
3 hours |
|
MATH or STAT
electives, 4000-6000 level |
6 hours |
|
STAT 6837 and
STAT 6838 |
6 hours |
The graduate plan in Mathematics and Statistics leads to a Master of Science (MS) degree in Mathematics and a Master of Science (MS) degree in Statistics. This plan emphasizes a curriculum that is designed to educate students in both Mathematics and Statistics. The plan is suitable for students with degrees in engineering, science or other fields with an undergraduate background in mathematics.
The following courses or their approved substitutes are required:
|
MATH |
5131 |
Abstract
Algebra |
|
STAT |
5431 |
Theory &
Application of Probability |
|
MATH |
5132 |
Real Analysis |
|
STAT |
5432 |
Theory &
Applications of Statistics |
|
MATH |
5136 |
Ordinary
Differential Equations & Dynamical Systems |
|
STAT |
5531 |
Multivariate
Statistical Analysis |
|
MATH |
5231 |
Linear Algebra |
|
STAT |
5532 |
Linear Models
& Regression Analysis |
|
STAT |
5533 |
Statistical
Computing with SAS and S-Plus |
Students will select two courses from the following six courses:
|
MATH |
5133 |
Complex
Analysis |
|
MATH |
5232 |
Number Theory |
|
MATH |
5134 |
Logic |
|
MATH |
5333 |
Numerical
Analysis |
|
MATH |
5137 |
Topology &
Geometry |
|
MATH |
5431 |
Math Modeling
in the Applied Sciences |
|
MATH /STAT
courses |
5000-6000 level |
9 hours |
|
Electives |
5000-6000 level |
6 hours |
|
MATH /STAT
electives |
4000-6000 level |
6 hours |
|
MATH or STAT
6939 |
Master's Thesis
Research |
6 hours |
Students desiring to follow the extended course work option must complete Research Project I and II (MATH 6837/6838 or STAT 6837/6838) during the last 18 hours of course work.
|
MATH /STAT
courses |
5000-6000
level** |
9 hours |
|
Electives |
5000-6000 level |
6 hours |
|
MATH /STAT
electives |
4000-6000 level |
6 hours |
|
MATH 6837/6838
or STAT 6837/6838 |
6 hours |
|
**Note: At least 6 of these 9 credit hours have to be in the field in which the thesis or research project is done.
Students desiring to study in engineering may choose from four graduate plans. The four graduate plans are Computer Engineering (CENG), Software Engineering (SWEN), Systems Engineering (SENG) and Engineering Management (EMGT). Applicants should consult the chair of the division for additional information.
Students seeking graduate degree candidacy should have a bachelor's degree in a related field. To be accepted for degree candidacy, students should be within 15 hours of completing upper-level foundation courses. These courses are listed in the particular degree area in the catalog. All foundation courses must be completed within one calendar year of first graduate registration at UHCL. Students needing more than 15 hours of upper-level foundation courses are encouraged to complete a second bachelor's degree.
The plan in Computer Engineering leads to the master of science (MS) degree. Graduate study in this plan prepares students to occupy leading roles in the development and use of computers and computer systems. The plan in Computer Engineering addresses the evaluation, design and implementation of computer systems for various applications. The curriculum and faculty research emphasize the integration of systems design, software applications and hardware design. Current specializations within the computer engineering degree plan include computer control systems, industrial automation and robotics, fault-tolerant computing, parallel processing, telecommunications and networking. The plan consists of formal courses, laboratory work and research in one of the specialty areas conducted under the guidance of a faculty advisor.
Candidates should have a bachelor's degree in Computer Engineering or equivalent. Students should consult an academic advisor to determine if they have sufficient background to satisfy course prerequisites. At a minimum, the following undergraduate courses, or their equivalents, are required and should be completed prior to enrolling in certain graduate courses:
|
CENG |
3112 |
Lab for Digital
Circuits |
|
CENG |
4534 |
Digital System
Design |
|
CENG |
3132 |
Digital
Circuits |
|
CSCI |
3133 |
Programming
with C |
|
CENG |
3511 |
Lab for
Computer Architecture |
|
CSCI |
3231 |
Numerical
Methods |
|
CENG |
3531 |
Computer
Architecture |
|
CSCI |
3331 |
Comp Org and Assembly
Language |
|
CENG |
4133 |
Microprocessor
Interfacing |
|
MATH |
4131 |
Ord Diff Equations & Appl |
|
CENG |
4331 |
Analysis and
Design of Linear Systems |
(Note: Students may enroll in CENG 5031 Computer Engineering Fundamentals and CENG 5011 Lab for Computer Engineering Fundamentals to meet the requirements of CENG 3132, CENG 3112, CENG 3531 and CENG 3511.)
The following courses or their approved substitutions are required for both the thesis and the extended course work options.
|
CENG |
5131 |
Engineering
Applications |
3 hours |
|
CENG |
5334 |
Fault Tolerant
Computing |
3 hours |
|
CENG |
5434 |
Microcomputer
Systems Design |
3 hours |
|
CENG |
6332 |
High
Performance Computer Architecture |
3 hours |
The following courses or their approved substitutions are required for both the thesis and the extended course work options.
|
CENG courses |
5100-6000 level |
6 hours |
|
CENG/CSCI/SWEN
courses |
5100-6000 level |
6 hours |
|
Technical
elective |
4000-6000 level |
6 hours |
|
CENG |
6939 |
Master's Thesis
Research |
6 hours |
(Note: an additional 3 hours of thesis may be used as a plan elective.)
|
CENG |
6838 |
Research
Project* |
3 hours |
|
CENG |
elective |
5000-6000 level |
|
|
(Student may
take 3 hours extra of project course) |
3 hours |
||
(*To be taken after completion of core courses and during last 12 hours)
Students interested in developing a sub-plan in Digital Signal Processing should take the following as electives:
|
CENG |
5431 |
Digital Signal
Processing |
|
CENG |
5433 |
Principles of
Digital Communication Systems |
|
CENG |
6431 |
DSP
Implementations |
Students interested in developing a sub-plan in telecommunications should take the following as electives:
|
CENG |
5333 |
Network
Performance Analysis |
|
CENG |
5433 |
Principles of
Digital Comm. Systems |
|
CENG |
5431 |
Digital Signal
Processing |
The graduate plan in Engineering Management (EMGT) leads to the master of science (MS) degree. The Engineering Management Plan offers the candidate the opportunity to earn an advanced degree in two years while maintaining full-time employment. The EMGT curriculum provides the candidate with an enhanced perspective on issues that affect the management of technology in today's world. The material is targeted to equip the candidate with the tools to better manage a project, processes, personnel, products and services in real-world situations. From organization behavior, management of organizations and optimal decision-making, to engineering, economics, the plan courses focus on essential topics. Individuals with engineering and scientific backgrounds will find that this master of science degree may better suit their needs than the traditional MBA.
The Engineering Management (EMGT) curriculum is composed of 30 hours of graduate course work of which 24 will be core courses. The 6 hours of electives could be either a 3 hour course elective with the Capstone Project or 6 hours of Thesis. The following plan course of study illustrates the cross-disciplinary nature of the program.
To enter the EMGT plan, a candidate must hold a bachelor's degree in engineering or science. The candidate must be approved by the graduate admission committee to ensure that the appropriate industrial or existing managerial background knowledge base is present. The GRE is required of all candidates applying for admission. The preferred GRE score is at least 1000 (verbal + quantitative), with a verbal score of 400 or higher. GRE scores will be evaluated by the degree plan's admissions committee and will be used as one of the indicators of the applicant's potential for completion of the plan. It is recommended that candidates who apply for admission to a graduate plan have a GPA of 3.0 or greater (four point grade scale) on the last 60 hours of course work.
The graduate degree in EMGT requires 30 hours of graduate courses. No 4000 level credits will be allowed for the EMGT master's degree. A maximum of six hours of grades of "C" may be counted toward the graduate degree; grades of "C-" will not apply.
In addition, the EMGT graduate admission committee may require that a set of foundation courses and their prerequisites be completed before enrolling in graduate EMGT program. The foundation courses are:
|
MATH |
4131 |
Ordinary
Differential Equations and Apps |
|
MATH |
3334 |
Probability and
Statistics for Scientists & Engineers |
Industrial related experience and letters of recommendations from current employers may also be required during admission review. The EMGT faculty graduate admissions committee based upon plan needs, the guidelines stated herein and UHCL admission requirements will decide acceptance into the program. Once admitted, the candidate must file a CPS in the first semester of enrollment.
The following 18 hours of core requirements are required for both the thesis and capstone option.
|
EMGT |
5130 |
New Business
Development |
3 hours |
|
EMGT |
5230 |
Negotiation
Strategies |
3 hours |
|
EMGT |
5231 |
Engineering
Management Planning |
3 hours |
|
*EMGT |
5330 |
Service and
Operations Management |
3 hours |
|
MGMT |
5032 |
Human Behavior
in Organizations |
3 hours |
|
MGMT |
5636 |
Management of
Technology |
3 hours |
*Pending Coordinating Board Approval
The master degree candidates with capstone option and thesis option must complete 9 hours of elective requirements and 6 hours of elective requirements, respectively. However, MGMT 5931 and SWEN 5230 cannot be included together.
|
EMGT |
5131 |
Legal Issues in
Engineering Management |
3 hours |
|
*EMGT |
5331 |
Six-Sigma
Quality |
3 hours |
|
MGMT |
5931 |
Research Topic
in Management: Project Management |
3 hours |
|
SENG |
5230 |
Systems
Engineering Economics |
3 hours |
|
SWEN |
5230 |
Software
Project Management |
3 hours |
The Capstone enrollment is limited to candidates who have completed 18 hours of the EMGT core requirements and elective requirementsand their prerequisites. Under the capstone option, the master degreecandidates must complete 18 hours of core requirements and 9 hours of elective requirements.
|
EMGT |
6837 |
Engineering
Management Capstone Project |
3 hours |
The following gives the rubric, course names, and credits for EMGT Thesis Option that consists of six (6) hours of thesis research in engineering management. The master degree candidacy must have the approval of the candidate's faculty advisor and the Dean of SCE. Under the thesis option, master degree candidates must complete 18 hours of core requirements and 6 hours of elective requirements.
|
EMGT |
6939 |
Master's Thesis
Research |
6 hours |
The graduate plan in Software Engineering leads to the master of science (MS) degree. Students are best prepared for this program by having an undergraduate in Computer Science or Computer Engineering. Studies in this degree address the foundations, methodologies and tools used in the management, planning, design and engineering of software systems. By providing a careful balance between theory and practice, the Plan prepares students for key software positions in industry, government, and other institutions where software engineering has become a key activity of the larger company. The Plan requires seven core areas of software engineering to be mastered. Each of these key areas is covered by a dedicated core course. The plan also allows for further expansion into one of three areas (subplans) of software engineering: Software Project Management, Software Safety, and System Design. The Software Engineering program allows three to four electives that can be utilized to target the degree to an area of interest within software engineering. The software engineering degree is designed to prepare students for jobs such as system analyst, requirements engineering, software architecture, software project manager, or software designer.
No more than 9 hours of graduate level Software Engineering classes may be applied to the SWEN degree if taken without admission into the program. No more than 6 hours graduate credit may be transferred to the Software Engineering degree.
Candidate Plan of Study (CPS): Students accepted in the Software Engineering program must file a candidate plan of study with their assigned faculty advisor by the end of the first semester of study. The candidate plan of study details all courses the student must take to fulfill the degree requirements.
To enter the Software Engineering plan as either a local student or distance student, a candidate must hold a bachelor's degree in computer science, computer engineering, software engineering or closely related field, must submit GRE scores of at least 1000 (verbal + quantitative), with a verbal score of 400 or higher and a GPA of 3.00 or higher. The faculty graduate admissions committee will decide acceptance into the program based upon program need, the guidelines stated herein and university admission requirements. Once admitted, the student must file a candidate plan of study (CPS) in the first semester of enrollment. Foundation courses, and other courses, that are found to be needed are added to the CPS and must be completed in or before the first year of enrollment.
Courses that may be required for Admission to Software Engineering:
Technical Writing and Intermediate Writing may be added as a requirement of admission to software engineering based on the verbal GRE score. If this requirement is added then the student will have to take these two writing courses in addition to the other courses required for the degree. If the GRE verbal is 400 or above, these additional courses will not be required.
|
WRIT |
3035 |
Intermediate
Writing * |
3 hours |
|
WRIT |
3135 |
Technical
Writing * |
3 hours |
*Required if verbal GRE < 400,
Foundation Courses Required for Entrance
Foundation courses and their prerequisites are required for entry and must be completed before enrolling in graduate SWEN courses.
|
CSCI |
3333 |
Data Structures |
3 hours |
|
MATH |
3331 |
Discrete
Mathematics** |
3 hours |
|
MATH |
3334 |
Probability and
Statistics for Scientists and Engineers** |
3 hours |
** Math 3331 and 3334 required if quantitative GRE < 500
|
SWEN |
5130 |
Requirements
Engineering |
3 hours |
|
SWEN |
5232 |
Software
Construction |
3 hours |
|
SWEN |
5233 |
Software
Architecture |
3 hours |
|
SWEN |
5234 |
Software Engineering
Processes |
3 hours |
|
SWEN |
5432 |
Software
Engineering Life Cycle |
3 hours |
|
SWEN |
5532 |
Software Safety
|
3 hours |
|
SWEN |
5534 |
Reuse and
Reengineering |
3 hours |
|
SWEN 6837 |
Software
Engineering Capstone Project** |
3 hours |
|
**Capstone
enrollment is limited to students who have completed all 21 hours of the SWEN
CORE and their prerequisites. |
||
|
EMGT/SENG/CENG/CSCI/SWEN
*technical elective |
5100-6000 level |
3 hours |
|
EMGT/SENG/CENG/CSCI/SWEN
*technical elective |
4000-6000 level |
3 hours |
|
SWEN *technical
elective |
4000-6000 level |
3 hours |
|
SWEN *technical
elective |
5100-6000 level |
3 hours |
*Courses taken as electives in SWEN require permission of the faculty advisor.
|
SWEN |
6939 |
Master's Thesis
Research |
6 hours |
Students must form a thesis committee and prepare a thesis proposal in the semester prior to enrollment into thesis. Contact the SCE advising office for instructions.
|
EMGT/SENG/CENG/CSCI/SWEN
*technical elective |
4000-6000 level |
6 hours |
|
SWEN *technical
elective |
5100-6000 level |
3 hours |
*Courses taken as electives require permission of the faculty adviser.
Students interested in concentrating their study in a specific sub-area of software engineering such as System Design, Software Safety or Software Project Management may choose as electives those courses listed under the respective sub-plans listed below.
System Design Sub-plan
|
*SWEN |
5132 |
Software Design
Patterns |
3 hours |
|
*SWEN |
5133 |
Aspect-
Oriented Development |
3 hours |
|
*SWEN |
5134 |
Service
Oriented Architecture |
3 hours |
|
SENG |
5330 |
Risk Management |
3 hours |
|
SENG |
5334 |
Human Factors
Engineering |
3 hours |
|
SWEN |
5431 |
Testing,
Validation and Verification |
3 hours |
|
SENG |
5330 |
Risk Management |
3 hours |
|
SWEN |
5230 |
Software
Project Management |
3 hours |
|
SWEN |
4435 |
or |
|
|
SWEN |
5435 |
Personal
Software Process |
|
3 hours
Web Based Electives (Distance Option)
|
CSCI |
5333 |
Database
Management Systems |
|
SENG |
5330 |
Risk Management |
|
*SWEN |
5132 |
Software Design
Patterns |
|
*SWEN |
5133 |
Aspect-Oriented
Development |
|
*SWEN |
5134 |
Service
Oriented Development |
|
SWEN |
5230 |
Software
Project Management |
|
SWEN |
5430 |
Software
Metrics |
|
SWEN |
5431 |
Testing,
Validation and Verification |
|
SWEN |
5435 |
or |
|
SWEN |
4435 |
Personal
Software Process |
Some courses have a dependency structure and students should consult the Software Engineering Course Roster in this catalog for prerequisites, co-requisites of courses.
The Software Engineering program may be taken entirely via the internet. All SWEN core courses are offered online and there are nine elective courses that are offered online. All SWEN courses and electives necessary for the degree are available via the web whereas the foundation courses are not. Foundation courses and writing courses are only offered as traditional on campus live lecture classes. These courses must be taken either at UHCL or at another university before entry into the SWEN distance option. Electives available for the SWEN degree are listed with the distance option above. For more information about the software engineering degree and the distance option see http://sce.uhcl.edu/softwareengineering.
The admission requirements for the certificate program are as follows: an undergraduate degree in Computer Science, Computer Engineering or Software Engineering, and an undergraduate GPA of 3.0. (The GRE is not required for the certificate since the certificate program is considered a non-degree seeking program). A student pursuing the certificate could possibly transfer the certificate courses to the SWEN Degree after completion of the certificate. To do this the student must take the GRE, apply and be accepted to the SWEN program. The certificate cannot be pursued at the same time as the SWEN degree since students pursuing a certificate are considered non-degree seeking and therefore cannot be enrolled in a degree seeking program at the same time.
The Software Engineering certificate is designed to prepare students to address important aspects of software development including: developing the student's ability to communicate ideas; develop and manage software products; and to understand the complexities of building quality into a software product. To earn the certificate the 4-course set below must be completed within a 4 year time limit.
|
SWEN |
5130 |
Requirements
Engineering |
|
SWEN |
5232 |
Software
Construction |
|
SWEN |
5234 |
Software Engineering
Processes |
|
SWEN |
5432 |
Software
Engineering Life Cycle |
The graduate plan in Systems Engineering leads to a master of science (MS) degree. The plan is designed to prepare engineers who are knowledgeable in interdisciplinary systems engineering approaches and engineering management and who therefore have the full range of concurrent engineering concepts and skills needed to specify, implement and support complete systems. Such knowledge is particularly important in the evolution of systems that are critical to achieving the mission of an organization and to sustaining the safety of life, health, property and the environment. Such systems are vital to many organizations that are served by UHCL such as: aerospace, biomedical, chemical, energy, manufacturing and others. The plan consists of formal courses, laboratory work and research conducted under the guidance of a faculty advisor. Candidates can tailor their plan of study to emphasize systems engineering analysis or systems engineering management. The Web site for the Systems Engineering program is http://sce.uhcl.edu/seng
The candidates should have a bachelor's degree and be approved by the graduate admissions committee to ensure that the appropriate background knowledge base is present. This background must include, at a minimum:
|
CSCI |
3133 |
Programming
with C |
3 hours |
|
MATH |
3334 |
Prob. and
Statistics for Scientists and Engineers |
3 hours |
|
MATH |
4131 |
Ordinary
Differential Equations and Apps |
3 hours |
Candidates who do not have the required or equivalent preparation are required to take the appropriate courses before enrolling in certain graduate career courses in SENG, SWEN, CSCI and CENG. The committee recommends that candidates take CENG 5131 Engineering Applications as a preparation elective.
|
SENG |
5130 |
Systems
Engineering Processes |
3 hours |
|
SENG |
5230 |
Systems
Engineering Economics |
3 hours |
|
SENG |
5231 |
Concurrent
Engineering |
3 hours |
|
SENG |
5232 |
Engineering
Specialty Integration |
3 hours |
|
SENG |
5233 |
Systems
Engineering Analysis & Modeling |
3 hours |
|
SENG |
5330 |
Risk Management |
3 hours |
|
SWEN |
5230 |
Software
Project Management |
3 hours |
|
SENG |
5332 |
Decision
Analysis for Systems Engineering |
3 hours |
|
SENG |
5334 |
Human Factors
Engineering |
3 hours |
|
SENG |
5532 |
Adv. Decision
Analysis for Systems |
3 hours |
|
MGMT |
5636 |
Management of
Technology |
3 hours |
|
MGMT |
5638 |
Managing
Technical and Professional People |
3 hours |
|
INDH |
5335 |
Ergonomic
Methods and Analysis Techniques |
3 hours |
|
INDH |
6332 |
Safety
Engineering |
3 hours |
These candidates may also choose elective options from the CENG, SWEN or EMGT engineering programs.
Thesis Option (6 hours of thesis + 9 hours of electives)
|
SENG 6939
Master's Thesis Research |
6 hours |
|
Electives in
engineering, science and mathematics approved by the student's advisor |
9 hours |
|
SENG 6837
Systems Engineering Capstone Project |
3 hours |
|
Electives in
engineering, science and mathematics approved by the student's advisor |
12 hours |
Students may already have a Masters degree in a related field and would benefit from a four course set in Systems Engineering basics that would help them advance in their professional career. The candidate could, after receiving a SENG certificate, apply these four courses toward the completion of the master of science degree. The candidate choosing to earn a certificate in Systems Engineering will be required to complete four courses with a 3.0 grade point average or better, based on a 4.0 system. The candidate will be given the option to pick from the following core courses they find most useful to their application:
The Systems Engineering Basics four, three hour courses are:
|
SENG |
5130 |
Systems
Engineering Processes |
3 hours |
|
SENG |
5230 |
Systems
Engineering Economics |
3 hours |
|
SENG |
5330 |
Risk Management |
3 hours |
|
SENG |
5332 |
Decision
Analysis for Systems Engineering |
3 hours |
|
SENG |
5231 |
Concurrent
Engineering |
3 hours |
|
SENG |
5233 |
Systems
Engineering Analysis & Modeling |
3 hours |
|
SENG |
5334 |
Human Factors
Engineering |
3 hours |
|
INDH |
5335 |
Ergonomic
Methods and Analysis Techniques |
3 hours |
|
INDH |
6332 |
Safety
Engineering |
3 hours |
The graduate plan in Biological Sciences leads to the master of science (MS) degree. Applicants for candidacy should have a bachelor's degree in Biology, although applicants with other degrees may apply if their degrees or preparation include a significant number of plan core courses in the Biological Sciences, as well as appropriate chemistry, physics and mathematics courses.
Students should have completed the basic requirements of the bachelor of science degree in Biological Sciences at UHCL or the following courses (including prerequisites or equivalents) before applying for admission:
|
BIOL |
3431 |
Genetics |
|
BIOL |
4431 |
Biochemistry I |
|
BIOL |
4434 |
Comparative
Animal Physiology or |
|
BIOL |
4435 |
Human
Physiology |
|
MATH |
3038 |
Computation
Statistics |
Two of the following four courses:
|
BIOL |
3231 |
Cellular
Physiology |
|
BIOL |
4131 |
Molecular
Biology |
|
BIOL |
4437 |
Microbiology |
|
BIOL |
4531 |
Ecology |
A maximum of six credit hours of the 4000 level courses listed above may be applied toward the MS degree.
As a condition of admittance to the graduate program, students who fail to meet School GRE and/or GPA standards will be required to meet additional performance criteria, such as past performance in critical courses, withdrawal and drop history, letters of recommendation, personal knowledge of past performance, improvement on repeated courses, work and/or life experiences and individual faculty support as a mentor in the research laboratory.
All graduate students in the Biology program must complete a Candidate Plan of Study (CPS) with their assigned faculty advisor before they complete 9 hours of graduate credit. Courses completed past the initial 9 hours that are not on the approved CPS may not be counted toward the degree.
Graduate students who are pursuing the master's thesis option are advised to take BIOL 5530, Research Methods in Biology, in consultation with their faculty advisor early in their studies as preparation for beginning the thesis. The remaining graduate hours may be taken in related areas and will be arranged with the faculty adviser during the preparation of the CPS. At minimum, 24 of the 36 hours must be in the Biological Sciences. Students who select the non-thesis option are required to complete BIOL 6838, the capstone project and seminar course, during their last 12 hours.
The masters degree in Biology with a pre-health focus consists of coursework that is intended to prepare the student for medical/dental/physician assistant/allied health school curricula. The pre-health specialization coursework includes 27 hours of core courses, 3 hours of capstone course (BIOL 6838), and 6 hours of graduate electives. A thesis option is also available.
|
BIOL |
4432 |
Biochemistry II
|
|
BIOL |
5131 |
Membrane
Biology |
|
BIOL |
5132 |
Cell Signaling |
|
BIOL |
5332 |
Toxicology |
|
BIOL |
5435 |
Advanced
Immunology |
|
BIOL |
5635 |
Neuroscience |
|
BIOL |
5734 |
Oncogenes |
|
BIOL |
5736 |
Bioethics |
|
BIOL |
5436 |
Physiological
Basis of Disease |
|
or |
||
|
BIOL |
5136 |
Physiology of
Human Aging |
Two (2) additional electives (4000 level or above), plus BIOL 6838 Research Project and Seminar
BIOL 5530 Research Methods in Biology plus six hours in BIOL 6939 Master's Thesis Research
For students selecting the non-thesis option, recommended electives include:
|
BIOL |
4332 |
Histology |
|
BIOL |
4437 |
Cellular
Physiology |
|
BIOL |
4438 |
Developmental
Biology |
|
BIOL |
4531 |
Molecular
Biology |
|
BIOL |
4731 |
Cancer Biology |
|
BIOL |
5433 |
Enzymology Molecular Biology |
|
BIOL |
5939 |
Independent
Study in Biological Science |
UHCL Pre-Health Advisory Committee Webpage: http://www.uhcl.edu/sce/HPAC
Information on the certificate option in Biotechnology can be found in the Undergraduate Catalog.
The graduate plan in Biotechnology leads to the master of science (M.S.) degree. In addition to satisfying admission requirements of the University and SCE (e.g., transcripts and GRE scores), applicants for the M.S. in Biotechnology program should have completed a bachelor's degree in biology or a related discipline. All applicants must submit two letters of recommendation directed to the chairperson of the admissions committee for the M.S. in Biotechnology. Upon acceptance to the M.S. in Biotechnology, a student must identify the concentration to be pursued.
Applicants should have completed the appropriate foundation course work. Applicants missing certain required courses in their undergraduate preparation, but who meet the minimum university standards for admission, may be admitted on condition that they will complete specific undergraduate foundation courses for full admission to the program. If additional coursework is required to meet prerequisites for courses in a concentration area, students may enroll in these after admittance to the program.
Courses listed as foundation courses on the CPS for either the core or concentration area will not apply to the credit hours required for the M.S. degree. Students requiring significant prerequisite or foundation coursework should anticipate an extended time commitment for earning the graduate degree.
Applicants must have completed the equivalent of the basic requirements for the Bachelor of Science degree in Biological Sciences, or the following courses or equivalents before applying for admission:
|
BIOL |
3431 |
Genetics |
|
BIOL |
4437 |
Cellular
Physiology |
|
BIOL |
4431 |
Biochemistry I |
|
BIOL |
4531 |
Molecular Biology |
|
BIOL |
4434, 4435 or
3134 |
Animal, Human
or Plant Physiology |
|
MATH |
3038 |
Computational
Statistics |
In all cases above, evidence of completion of the course with a grade of "C" or better is required.
Concentration Prerequisite Requirements
The following additional prerequisite courses are required for the specific concentration chosen by the student:
Molecular Biotechnology Concentration (UHCL course or equivalent)
|
BIOL |
4522 |
Molecular
Biology Laboratory |
|
BIOL |
4535 |
Tissue Culture |
Bioinformatics / Computational Biology Concentration (UHCL course or equivalent)
|
CSCI |
3133 |
Programming
with C |
|
CSCI |
3333 |
Data Structures |
|
CSCI |
3134 |
Software
Development with Java |
|
CSCI |
3532 |
Advanced Data
Structures and Algorithms |
|
CSCI |
3233 |
Object-Oriented
Design and Programming |
|
CSCI |
4333 |
Design of
Database Systems |
Biotechnology Management and Marketing Concentration (UHCL course or equivalent)
|
**MGMT |
3031 |
Management
Theory and Practice |
|
**MGMT |
4534 |
Organizational
Behavior |
|
**MKTG |
3031 |
Marketing:
Creating Value for Customers |
**If students have not taken MGMT 3031, MGMT 4534, and MKTG 3031 they may take MGMT 5032 and MKTG 5031 to fulfill the foundation requirements of this concentration.
A maximum of 6 credit hours of the 4000-level courses listed above may be applied toward the M.S. degree.
In all cases above, evidence of completion of the course with a grade of "C" or better is required.
Core Requirements for the M.S. Degree
The M.S. degree requires the completion of 36 hours. All core requirements and Biotechnology electives must be completed with a grade of "C" or better but GPA must be ≥ 3.0. Although the M.S. in Biotechnology does not require an internship, field experience or thesis, these options are available and students are encouraged to participate in them.
Required courses (18 hours):
|
BIOT |
5031 |
Applied
Biotechnology |
3 hours |
|
BIOT |
5131 |
Advanced
Methods in Biotechnology I |
3 hours |
|
BIOT |
5132 |
Advanced
Methods in Biotechnology II |
3 hours |
|
BIOT |
5733 |
Bioinformatics |
3 hours |
|
BIOT |
5736 |
Bioethics |
3 hours |
|
STAT |
5135 |
Applied
Statistical Methods |
3 hours |
Under the Extended Coursework Option, a minimum of 27 hours of Biotechnology core curriculum (including 6 hours of approved electives from any of the three concentrations and 3 hours of BIOT 6838 Research Project and Seminar), plus 9 hours of electives within their specific concentration area must be completed.
Under the Thesis Option, a minimum of 27 hours of Biotechnology core curriculum (including 3 hours of BIOT 5530 Research Methods in Biotechnology and 6 hours of BIOT 6939 Master's Thesis Research), plus 9 hours of electives within their specific concentration area must be completed (Note: an additional 3 credit hours of BIOT 6939 may be used as a plan elective). Graduate students who select the master's thesis option are advised to take BIOT 5530, Research Methods in Biotechnology, early in their studies as preparation for beginning the thesis.
Molecular Biotechnology Concentration (9-15 Hours)
|
BIOL |
5131 |
Membrane
Biology |
|
BIOL |
5732 |
Advances in
Molecular Biology |
|
BIOL |
5132 |
Cell Signaling |
|
BIOL |
5734 |
Oncogenes |
|
BIOL |
5332 |
Toxicology |
|
BIOL |
5737 |
Molecular
Vectors |
|
BIOL |
5333 |
Industrial
Microbiology |
|
BIOL |
5738 |
Gene Therapy |
|
BIOL |
5433 |
Enzymology |
|
BIOL |
5833 |
Proteomics |
|
BIOL |
5435 |
Advanced
Immunology |
|
BIOT |
5915 |
Cooperative
Education Work Term |
|
BIOL |
5634 |
Apoptosis |
|
BIOT |
5931 |
Research Topics
in Biotechnology |
|
BIOL |
5635 |
Neuroscience |
Bioinformatics / Computational Biology Concentration (9-15 Hours)
|
BIOL |
5737 |
Molecular
Vectors |
|
CSCI |
5633 |
Web Database
Development |
|
BIOL |
5833 |
Proteomics |
|
CSCI |
5733 |
XML Application
Development |
|
CSCI |
5333 |
Database
Management Systems |
|
CSCI |
5833 |
Data Mining:
Tools and Techniques |
|
CSCI |
5433 |
Object-Oriented
Database Systems |
|
BIOT |
5915 |
Cooperative
Education Work Term |
|
CSCI |
5530 |
Pattern
Classification |
|
BIOT |
5931 |
Research Topics
in Biotechnology |
|
CSCI |
5532 |
Pattern
Recognition and Image Processing |
Biotechnology Management and Marketing Concentration (9-15 Hours)
|
BAPA |
5131 |
The Global
Environment of Business |
|
MGMT |
6332 |
International
Management |
|
MGMT |
5133 |
Teamwork &
Leadership Skills: Theory in Practice |
|
MKTG |
5332 |
Executive
Decisions In Marketing |
|
MGMT |
5636 |
Management of Technology |
|
MKTG |
5532 |
International
Marketing Strategy |
|
INDH |
6135 |
Radiation
Protection |
|
MGMT |
5638 |
Managing
Technical and Professional People |
|
BIOT |
5931 |
Research Topics
in Biotechnology |
The plan in Chemistry leads to the master of science (MS) degree. Graduate students enrolled in the Chemistry plan may choose from high quality content courses in all of the traditional areas of Organic, Analytical, Physical and Inorganic Chemistry, as well as in the closely related fields of Biochemistry and Environmental Chemistry. Moreover, students are encouraged to further enhance their studies by undertaking research with one of the Chemistry plan's faculty in any of these areas. In regard to such research, it should be noted that during the past nine years the Chemistry plan has received endowments from the Welch Foundation in the form of a Chemistry Departmental Research Grant. Those funds have been expended in support of the research efforts carried out by the plan's faculty during the training of students. This grant has just been renewed through the year 2011. The Chemistry plan also has an endowment from the Zeon Chemicals Company.
All chemistry courses taken at UHCL more than one year prior to being admitted to the Chemistry plan are subject to faculty review before being accepted for degree credit. Further information on the Chemistry plan is available from the Chair of Chemistry.
An advanced studies plan in Chemistry leads to the master of science (MS) degree. The thesis option affords students opportunities to develop research skills appropriate for terminal degrees as professional chemists or for continuation into PhD plans. The extended course work option emphasizes classroom instruction in advanced chemical sciences and is particularly appropriate for educational advancement by industry professionals and secondary school teachers.
Students seeking the MS degree in Chemistry must have completed, at minimum, the following courses with grades of "C-" or better:
|
General
(Freshman) Chemistry I & II with laboratory |
8 hours |
|
Organic
Chemistry I & II with laboratory |
8 hours |
|
Analytical
Chemistry I & II with laboratory |
8 hours |
|
Physical
Chemistry I & II with laboratory |
8 hours |
|
Inorganic
Chemistry with laboratory |
5 hours |
Most of these course requirements may be met at UHCL prior to entering the graduate Chemistry plan by completing the following courses with grades of "C-" or better: CHEM 3233, CHEM 3234, CHEM 3224; CHEM 4635, CHEM 4636, CHEM 4622; CHEM 4231, CHEM 4232, CHEM 4222; CHEM 4335.
None of these courses is normally accepted for degree credit toward the hours in the graduate plan.
Students must successfully complete a minimum of 18 hours of graduate career chemistry courses, 12 hours of which must be taken at UHCL. All core requirements and chemistry electives must be completed with a grade of "B-" or better. A minimum of three hours must come from each of the following:
|
Organic
Chemistry (CHEM 5134, CHEM 5336, CHEM 5337, CHEM 5638) |
|
Analytical
Chemistry (CHEM 5133,CHEM 5636) |
|
Physical
Chemistry (CHEM 5235, CHEM 5637, CHEM 5639) |
|
Inorganic
Chemistry (CHEM 5335, CHEM 5336) |
|
Graduate
Seminar (CHEM 6731) |
Under the extended course work option, a minimum of 30 hours of formal course work (including three hours CHEM 6731 Graduate Seminar) must be completed. In addition, students must choose an adviser and complete a total of six hours credit in the two Research Project and Seminar courses (CHEM 6837 and CHEM 6838).
Under the thesis option, a minimum of 24 hours of formal course work (including three hours of CHEM 6731 Graduate Seminar) must be completed. In addition, students must complete a minimum of six hours of CHEM 6939, Master's Thesis Research. A maximum of nine hours of CHEM 6939 can be applied toward graduation requirements. Remaining course work for a total of 36 hours may come from CHEM 6838 Research Project and Seminar or additional formal courses.
The graduate plan in Environmental Science leads to the master of science (MS) degree. The plan seeks, through an interdisciplinary approach, to prepare students for opportunities in government and the private sector. Graduates of the plan may also be prepared to pursue further academic training in environmental sciences and occupational health. Students must specialize in one of the following areas: Environmental Biology, Environmental Chemistry, Environmental Geology, Industrial Hygiene or Safety.
Students seeking a master's degree must have course work preparation appropriate to their area of specialization. At least 34 hours of natural science and 6 hours of mathematics are required prior to admission. Candidates should have a "B" average (GPA: 3.0) on the last 60 hours of credit. GREs are required by all students applying for the graduate program. Scores will be evaluated by the school's admissions committee.
Students should submit a written statement to the Office of the Dean of Science and Computer Engineering specifying their educational goals and objectives as well as their intended areas of specialization, i.e., Environmental Biology, Environmental Chemistry, Environmental Geology, Industrial Hygiene or Safety. Applicants are also encouraged to submit letter(s) of recommendation as supporting documents. Basic requirement courses do not count toward the degree. These courses do, however, count toward the total hours required above. The following must be completed prior to admission into the graduate plan:
|
General
Chemistry |
2 semesters |
|
General Physics |
2 semesters |
|
Calculus I |
1 semester |
The following must be completed prior to or within the first year of study:
|
Organic
Chemistry I |
1 semester |
|
Statistics |
1 semester |
The master's degree requires completion of a minimum of 36 hours. The core consists of STAT 5135, ENSC 5530, and ENSC 6731 or ENSC 6838 or ENSC 6939, which must be taken in the order listed. Thesis and research project course options are available and are described below.
|
ENSC |
5530 |
Research
Methods: Environmental Science |
3 hours |
|
ENSC |
6939 |
Master's
Thesis: Environmental Science |
6 hours |
|
STAT |
5135 |
Applied
Statistical Methods |
3 hours |
Designated electives (maximum of 6 hours of 4000 level credit): 24 hours
|
ENSC |
5530 |
Research Methods:
Environmental Science |
3 hours |
|
ENSC |
6838 |
Research
Project |
3 hours |
|
|
|
Or ENSC 6731
Graduate Seminar |
|
|
STAT |
5135 |
Applied
Statistical Methods |
3 hours |
|
|
Designated
electives (maximum of 6 hours of 4000 level credit) |
27 hours |
|
Electives are selected in consultation with the faculty advisor and must include at least one course from three of the following areas: biology, chemistry, geology or industrial hygiene and safety. A maximum of six hours of environmental management courses may be included.
All graduate students are required to produce a major paper and present a public seminar. Prior to enrolling in ENSC 6731 or ENSC 6838, students must have a faculty advisor and an approved research topic.
Students pursuing the research project option may be advised to complete hours in independent study or internship in addition to ENSC 6838. Before enrolling in thesis, students must have a faculty thesis advisor and an approved research proposal.
|
INDH |
5131 |
Control of
Occupational Hazards |
3 Hours |
|
INDH |
5333 |
Air Pollution |
3 Hours |
|
INDH |
5335 |
Ergonomics
Methods & Analysis Techniques |
3 Hours |
|
INDH |
6135 |
Radiation
Protection |
3 Hours |
|
INDH |
6232 |
Analytical
Methods for Hazard Evaluation |
3 Hours |
|
INDH |
6332 |
Safety
Engineering |
3 Hours |
|
BIOL |
5332 |
Toxicology |
3 Hours |
|
CHEM/GEOL |
At the 4000,
5000 or 6000 levels (if applicable): |
||
|
to be arranged
with advisor |
3 Hours |
||
If Research Project instead of Thesis is chosen, then the student will need to have one more course to be approved by the faculty advisor.
|
ENSC |
5530 |
Research
Methods in Environmental Science |
3 Hours |
|
INDH |
5xxx |
System Safety
& Accident Investigation |
3 Hours |
|
INDH |
5xxx |
Const. &
General Industry Safety |
3 Hours |
|
INDH |
5131 |
Control of
Occupational Hazards |
3 Hours |
|
INDH |
5335 |
Ergonomic
Methods & Analysis Techniques |
3 Hours |
|
INDH |
6232 |
Analytical
Methods for Hazard Evaluation |
3 Hours |
|
INDH |
6332 |
Safety
Engineering |
3 Hours |
|
STAT |
5135 |
Applied
Statistical Methods |
3 Hours |
|
BIOL/CHEM/or
GEOL at the 4000, 5000 or 6000 levels (if applicable): |
|||
|
to be arranged
with advisor |
3 Hours |
||
If Research Project rather than Thesis is chosen, then the student will need to have one more course in INDH to be approved by the faculty advisor.
The graduate plan in Physics leads to the master of science (MS) degree at UHCL. The goal of this program is to prepare students for Ph.D. level work and advanced research in Physics and Astronomy. This program also serves to expand the knowledge base of practicing engineers. Students in this program gain better problem-solving abilities as well as increased knowledge of several aspects of Physics and Astronomy. The physics program provides students with a deeper understanding of the essential science used in many of the engineering disciplines and in the space industry.
Applicants for candidacy should have a bachelor of science (BS) degree in one of the physical sciences, mathematics or engineering disciplines. Applicants with other degrees may also apply if they meet the requirements listed below. Equivalent courses or appropriate substitutions will be determined in consultation with a faculty advisor. If background deficiencies exist, students may be required to take courses that will not apply toward the graduate degree.
Students should take the following courses (or equivalents) in preparation for the program (Note PHYS 4131 and PHYS 4132 satisfy many of these requirements):
|
University
Physics I & II with Laboratory |
8 hours |
|
Modern Physics |
3 hours |
|
Calculus I, II |
8 hours |
|
Calculus III |
3 hours |
|
Differential
Equations |
3 hours |
|
Complex
Variables |
3 hours |
|
Linear Algebra |
3 hours |
|
Probability and
Statistics |
3 hours |
|
Principles of
Electromagnetism |
3 hours |
|
Principles of
Quantum Mechanics |
3 hours |
|
Thermodynamics
& Fluid Mechanics |
3 hours |
The following 15 hours of graduate physics courses are required for both the thesis and extended course work options.
|
PHYS 5331 or
equivalent |
Electrodynamics
I |
3 hours |
|
PHYS 5431 or
equivalent |
Classical
Mechanics |
3 hours |
|
PHYS 5531 or
equivalent |
Mathematical
Methods in Physics I |
3 hours |
|
PHYS 5631 or
equivalent |
Quantum
Mechanics I |
3 hours |
|
PHYS 5731 or
equivalent |
Statistical
Mechanics and Thermodynamics |
3 hours |
Advanced SCE courses that meet the needs of students' professional goals may be selected in consultation with a faculty advisor.
Under the thesis option, a minimum of 24 hours of formal course work must be completed. In addition, students must complete a minimum of 6 hours of PHYS 6939; Master's Thesis Research. A maximum of 12 hours of PHYS 6939 can be applied toward graduation requirements. Remaining course work for a total of 36 hours may come from additional formal courses.
Under the non-thesis option, a minimum of 30 hours of formal course work must be completed. In addition, students must choose an advisor and complete 3 credit hours of Independent Study Research (PHYS 5739 or PHYS 5939) and 3 hours in the Research Project and Seminar Course (PHYS 6838). Students completing the sub-plan in Technical Management should complete either PHYS 5739 or PHYS 6838 as a capstone.
A good technical manager needs both an advanced broad-based technical background and insight into how to lead a team of people from different technical disciplines. Because physics is the scientific basis of all engineering, it can satisfy much of the broad-based technical requirement for a degree training technical managers. The physics core is complemented by a combination of systems engineering and management courses in order to create a plan that provides both the technical background and the leadership training. This results in a unique new approach to training technical managers. Please note that this sub-plan can only be completed with the non-thesis option.
Systems Engineering (at least two courses): 6 hours
|
SENG |
5230 |
Systems
Engineering Economics |
3 hours |
|
SENG |
5231 |
Concurrent
Engineering |
3 hours |
|
SENG |
5330 |
Risk Management |
3 hours |
|
SENG |
5332 |
Decision
Analysis for Systems Engineering |
3 hours |
Management (at least two courses): 6 hours
|
MGMT |
5032 |
Human Behavior
in Organizations |
3 hours |
|
MGMT |
5133 |
Teamwork &
Leadership Skills: Theory in Practice |
3 hours |
|
MGMT |
5638 |
Managing
Technical & Professional People |
3 hours |
|
Approved
Electives: 6 hours |
|||
Approved courses in SCE (All ASTR, PHYS and SENG courses
qualify) and any approved course in the
The first program of its kind, the Collaborative UHCL\UH Physics Ph.D. Program establishes a partnership between the master's degree program at UHCL and the Ph.D. program at UH. Select faculty at UH and UHCL hold joint appointments which allow them to ensure the smooth transition of their students from the M.S. to the Ph.D. program. In addition, a Joint Admission Committee helps advise students on their transition.
Six UHCL Physics courses PHYS 5331/5311: Electrodynamics I, PHYS 5431/5411: Classical Mechanics, PHYS 5531/5511: Mathematical Methods in Physics I, PHYS 5631/5611 and 5632/5612: Quantum Mechanics I and II, and PHYS 5731/5711: Statistical Mechanics and Thermodynamics will count towards Ph.D. candidacy at UH. A candidate must earn a grade of B or better in the class and on the final exam. Students exploring this option must apply for Ph.D. candidacy through the UH/UHCL Physics Joint Admissions Committee. Students accepted into the collaborative Ph.D. program will be subject to the same requirements as other Ph.D.candidates in the UH Physics program. They will complete their Ph.D. Thesis under the advisement of a UH and UHCL faculty committee. More information on the program can be found at http:// www.uhcl.edu/sce/collaborative.
Students completing the candidacy requirements for the Collaborative UHCL/UH Physics Ph.D. Program are eligible to receive a physics candidacy certificate. This certificate can be awarded to students independently of the Physics Master's Degree. A student pursuing a certificate has the option of switching to the Physics MS degree program at anytime during their enrollment in the certificate program and can apply all physics coursework taken towards the certificate to the MS degree. Qualified students pursuing the Physics MS degree have the option of applying for the certificate once the candidacy requirements are satisfied.