2018-19 University Catalog 
    
    May 05, 2024  
2018-19 University Catalog [ARCHIVED CATALOG]

Course Descriptions


Course descriptions in this section are reasonable summaries only and are neither completely inclusive nor completely exclusive of total course content for any given course.

Courses listed herein may or may not be offered each term.

Courses are listed alphabetically according to prefix.

Numbering Code

Courses are grouped into a three-digit number series which indicates the normal teaching levels. Some variations may occur.

1-99 Preparatory and Developmental Courses. Courses numbered below 100 are not applicable toward a degree even though units are assigned, grades are awarded and tuition is assessed.

Lower-Division Courses (freshman and sophomore)
100-199 First-Year Courses
200-299 Second-Year Courses

Upper-Division Courses (junior and senior)
300-399 Third-Year Courses
400-499 Fourth-Year Courses

Graduate Courses
500-599 Graduate Courses

Other Codes

Each Term:

Some courses in this section have a code following the course title. This code designates when the course will be offered. F indicates Fall, W indicates Winter, S indicates Spring.

Lecture, Lab, Credit Hours:

The three numbers following the course title. For example:

CST 101 Introduction to Personal Computing
(3-3-4) = weekly lecture hours – lab hours – total credits

For more information, see Baccalaureate General Education Requirements  

Courses with the following notation fulfill the appropriate general education requirements: 
C - Communication H - Humanities HP - Humanities Performance SS - Social Science

Special Terms

As Required: This term designates a course or series of courses which will be offered only as enrollment, student interest, or individual department needs demand and as staffing allows. A course so designated may be offered if special student needs, situations of extreme hardship, or other unusual circumstances deem it in the best interest of both the student(s) and the institution to do so.

Hours to be Arranged Each Term: Normally students negotiate individually with faculty members and/or departments and arrange to have courses so designated offered for the term most suitable to their unique situation.

Corequisite: A course that must be taken simultaneously with another course. Corequisites are noted at the end of each course description.

Prerequisite: A course that must be passed satisfactorily before another course may be taken. Prerequisites are noted at the end of each course description. Courses transferred in to Oregon Tech with a C- or better meet the prerequisite requirement of obtaining a C or better.

Quarter Credit: A credit hour is an amount of work represented in intended learning outcomes and verified by evidence of student achievement that is an institutionally established equivalency that reasonably approximates not less than:

  1. One hour of classroom or direct faculty instruction and a minimum of two hours of out-of-class student work each week for approximately fifteen weeks for one semester or trimester hour of credit, or ten to twelve weeks for one quarter hour of credit, or the equivalent amount of work over a different amount of time; or
  2. At least an equivalent amount of work as required in paragraph (1) of this definition for other academic activities as established by the institution, including laboratory work, internships, practicals, studio work, and other academic work leading to the award of credit hours.

A numerical credit value assigned to certain number of lecture or laboratory hours. A lecture class meeting for three 50-minute periods a week would be assigned three units of credit. Students have traditionally been expected to spend an additional six hours of outside class work per week for each three units of lecture class credit. Generally, a lab class requires three hours per week for one unit of credit, or a total of nine in-lab hours with no additional outside class work expected for three units of lab class credit.

Reading and Conference: A course taken on an independent study basis with the supervision of an instructor, usually consisting of weekly conferences, assigned readings, research papers, etc.

Seminar: A class taught by a group discussion process rather than by means of formal lecture. Student research and reporting are usually expected.

Sequence: A series of classes in the same subject area that, taken as a whole, comprise a full year’s work. Generally, course sequences are numbered consecutively, and often (though not always) should be taken in the numerical order listed (i.e., CHE 201  should be taken before CHE 202 , etc.).

 

Engineering

  
  • ENGR 236 - Fundamentals of Electric Circuits


    (F,S)
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Resistive circuits, operational amplifiers, capacitors, inductors, transient analysis, sine waves, AC circuit analysis, resonance, transformers. Not for Electronics Engineering Technology and Computer Engineering Technology students.

    Prerequisites: MATH 252 , and PHY 202  or PHY 222 
  
  • ENGR 266 - Engineering Computation


    (F,W,S)
    Lecture Hours: 2
    Lab Hours: 3
    Credit Hours: 3

    Programming and problem solving using current computer software. General programming techniques using conditional statements, looping, subroutines, and data input/output will be stressed. Consideration of features specific to the software being used will also be presented.

    Prerequisite: MATH 112 
  
  • ENGR 267 - Engineering Programming


    (W,S)
    Lecture Hours: 2
    Lab Hours: 3
    Credit Hours: 3

    Computer programming principles. Control structures. Structural programming principles. Functions and scripts. MATLAB programming. LabVIEW programming. Application of engineering programming principles in projects.

    Prerequisite: MATH 251 
  
  • ENGR 305 - Nanoscience and Nanotechnology


    (F)
    Lecture Hours: 4
    Lab Hours: 0
    Credit Hours: 4

    Survey of chemical and physical phenomena as applied to nanoscale materials, including metal and semiconductor nanoparticles and carbon nanostructures. Discussion of major synthesis and characterization techniques. Biological and engineering applications of nanoscale materials.

    Prerequisites: CHE 202  or CHE 222 , and PHY 222  or PHY 223  
  
  • ENGR 318 - Engineering Mechanics: Fluids


    (F)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Fundamental properties of fluids, fluid statics and pressure variation, flow characterization, momentum and forces due to fluid motion, energy of fluids in motion, and flow in conduits. Emphasis on civil and mechanical engineering applications of fluid mechanics principles.

    Prerequisites: ENGR 211  and MATH 252 
  
  • ENGR 326 - Electric Power Systems


    (F,W,S)
    Lecture Hours: 2
    Lab Hours: 3
    Credit Hours: 3

    Study related to theory and application of industrial electric power systems. Topics covered include transformers, motors, generators, motor controls, and protective devices.

    Prerequisite: ENGR 236  
  
  • ENGR 355 - Thermodynamics


    (F,W)
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    An introductory course in thermodynamics, the science of heat energy conversion. Develops understanding of energy, heat, work, efficiency, and ideal thermodynamic cycles. Teaches first and second laws of thermodynamics and perfect gas law.

    Prerequisites: MATH 252 , and PHY 202  or PHY 222  
  
  • ENGR 407 - Seminar


    Credit Hours: (Hours to be arranged each term.)

  
  • ENGR 415 - Occupational Safety


    (S)
    Lecture Hours: 2
    Lab Hours: 3
    Credit Hours: 3

    Topics include current occupational safety and health issues. Practical application of regulations in the industrial setting. Compliance to Industrial Hygiene and General Safety Standards. Common safety violations and implementation of safety programs.

    Prerequisite: Junior standing in any MMET program
  
  • ENGR 420 - Engineering Modeling and Simulation of Dynamic Systems


    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Conservation laws of physics are used to develop lumped-parameter models of dynamic systems. Modeling, mathematical analysis, and computer simulation of systems containing mechanical, electrical, electromechanical, fluid, and thermal components. Dynamic behavior and performance criteria characterization of continuous-time models.

    Prerequisites: EE 225 ENGR 266  or ENGR 267 MATH 321 MATH 322  or MATH 341 , and PHY 223 , all with grade “C” or better 
  
  • ENGR 421 - Automation for Robotics


    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    A capstone course in the automation, robotics, and control system engineering sequence. A unified treatment using dynamics, modeling, simulation, and linear control for the automation of robots. Trajectory planning, stability, controllability, and how these topics form key concepts of automation.

    Prerequisites: ENGR 423  and MATH 341 , both with grade “C” or better  
  
  • ENGR 422 - Process Control


    (W)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Design of continuous and batch process control systems. Advanced control schemes, including model-based methods.

    Prerequisite: ENGR 421 
  
  • ENGR 423 - Motion Control in Mechanisms and Robotics


    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Motion control components, beginning with the study of the function, classification, position, velocity, and acceleration of fundamental mechanisms and robot kinematic chains. Dynamic response of open- and closed-loop mechanisms to periodic and non-periodic loading. Sensors and actuators in motion control.

    Prerequisites: ENGR 212 ENGR 424 , and REE 253 , all with grade “C” or better 

  
  • ENGR 424 - Advanced Control Engineering


    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Advanced modeling of continuous and discrete processes suitable for use in control system design. State functions, state equations, transfer matrices. State-space model building, state-feedback control and observation, pole placement, linear transformations of state vectors. Introduction to discrete-time control systems.

    Prerequisites: EE 461  and ENGR 420 , both with grade “C” or better 
  
  • ENGR 445 - Engineering Project Management


    (S)
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Applications of the Critical Path Method to organization and control of engineering projects. Applications software will be used to create and evaluate project networks to develop management reports.

    Prerequisite: Junior standing in Engineering or Engineering Technology
  
  • ENGR 465 - Capstone Project


    (F,W,S)
    Lecture Hours: 0
    Lab Hours: 6
    Credit Hours: 2

    Students apply material learned in other courses, develop expertise on a specific topic, work closely with a faculty member to implement the project and improve professional communication skills by writing a project report. Course may be repeated for credit.

    Prerequisites: Junior standing and instructor consent
  
  • ENGR 485 - Fundamentals of Engineering Exam Preparation


    (S)
    Lecture Hours: 1
    Lab Hours: 0
    Credit Hours: 1

    A preparation course covering the requirements of, and providing a review for, the NCEES FE exam.

    Prerequisite: Senior standing in an MMET program
  
  • ENGR 491 - MMET Senior Projects I


    (F)
    Lecture Hours: 2
    Lab Hours: 3
    Credit Hours: 3

    The first course of a three-term sequence that offers a capstone experience for students in an MMET program. This experience involves the application of knowledge and skills acquired from prior coursework to an engineered system, system optimization, project management, and material related to a group engineering project. This course will be focused on the proposal and planning stages of the project assigned.

    Prerequisites: Senior standing in an MMET program and instructor consent
  
  • ENGR 492 - MMET Senior Projects II


    (W)
    Lecture Hours: 2
    Lab Hours: 3
    Credit Hours: 3

    The second course of a three-term sequence that offers a capstone experience for students in an MMET program. This experience involves the application of knowledge and skills acquired from prior coursework to an engineered system, system optimization, project management, and material related to a group engineering project. This course will be focused on the design and analysis of the project assigned.

    Prerequisite: ENGR 491  
  
  • ENGR 493 - MMET Senior Projects III


    (S)
    Lecture Hours: 1
    Lab Hours: 6
    Credit Hours: 3

    The third course of a three-term sequence that offers a capstone experience for students in an MMET program. This experience involves the application of knowledge and skills acquired from prior coursework to an engineered system, system optimization, project management, and material related to a group engineering project. This course will be focused on the implementation and assessment stages of the project assigned.

    Prerequisite: ENGR 492  
  
  • ENGR 507 - Seminar


    Credit Hours: (Hours to be arranged each term.)

  
  • ENGR 511 - Research Methods & Innovation: Intellectual Property


    Lecture Hours: 4
    Lab Hours: 0
    Credit Hours: 4

    Intellectual property (IP) development, evaluation, and strategy. IP fundamentals, patent fundamentals, conducting patentability searches, state-of-the art searchers, evaluating the patentability potential of an invention, drafting invention disclosures and patent applications, assessing the value of a patent or patent portfolio, and IP licensing fundamentals.

  
  • ENGR 512 - Research Methods & Innovation: Research Methods


    Lecture Hours: 4
    Lab Hours: 0
    Credit Hours: 4

    Fundamental concepts of scientific research. An introduction to the concepts underlying peer-reviewed research, evaluating the relevance and impact of sources, conducting literature reviews, evaluating published findings, using research productivity tools, using statistical methods, designing research studies, and writing scholarly articles.

  
  • ENGR 513 - Research Methods & Innovation: Strategy & Innovation


    Lecture Hours: 4
    Lab Hours: 0
    Credit Hours: 4

    Strategy and innovation concepts with a focus on technology commercialization. Business strategy frameworks, strategic execution, project management, technology forecasting, financial analysis, technical marketing, operations management, business models, business law, and entrepreneurship.

  
  • ENGR 520 - Engineering Modeling and Simulation of Dynamic Systems


    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Conservation laws of physics are used to develop lumped-parameter models of dynamic systems. Modeling, mathematical analysis, and computer simulation of systems containing mechanical, electrical, electromechanical, fluid, and thermal components. Dynamic behavior and performance criteria characterization of continuous-time models.

    Prerequisite: Graduate standing in Engineering
  
  • ENGR 521 - Automation for Robotics


    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    A capstone course in the automation, robotics, and control system engineering sequence. A unified treatment using dynamics, modeling, simulation, and linear control for the automation of robots. Trajectory planning, stability, controllability, and how these topics form key concepts of automation.

    Prerequisites: ENGR 523  with grade “C” or better, and graduate standing in Engineering
  
  • ENGR 522 - Process Control


    (W)
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Design of continuous and batch process control systems. Advanced control schemes, including model-based methods.

    Prerequisites: ENGR 520  and ENGR 521  
  
  • ENGR 523 - Motion Control in Mechanisms and Robotics


    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Motion control components, beginning with the study of the function, classification, position, velocity, and acceleration of fundamental mechanisms and robot kinematic chains. Dynamic response of open- and closed-loop mechanisms to periodic and non-periodic loading. Sensors and actuators in motion control.

    Prerequisites: ENGR 524  with grade “C” or better, and graduate standing in Engineering
  
  • ENGR 524 - Advanced Control Engineering


    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Advanced modeling of continuous and discrete processes suitable for use in control system design. State functions, state equations, transfer matrices. State-space model building, state-feedback control and observation, pole placement, linear transformations of state vectors. Introduction to discrete-time control systems.

    Prerequisites: EE 461 or an equivalent undergraduate course in control system engineering, and ENGR 520  both with grade “C” or better
  
  • ENGR 596 - Graduate Research & Development


    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Research and development in engineering at the graduate level. Course may be repeated for credit.

  
  • ENGR 597 - Graduate Project


    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Graduate project in engineering topics. Course may be repeated for credit.

  
  • ENGR 598 - Graduate Thesis


    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Graduate thesis in engineering topics. Course may be repeated for credit.

  
  • ENGR 599 - Practicum


    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Supervised practical experience in engineering topics at the graduate level. Course may be repeated for credit.


Engineering Technology

  
  • ENGT 101 - Engineering Technology Techniques


    Lecture Hours: 2
    Lab Hours: 6
    Credit Hours: 4

    Engineering terminology and problem solving tools including computer aided drafting, technical sketching, word processing, spread sheets, multi-view projections, significant figures, and engineering problem solving techniques.

    Prerequisite: MATH 100 
  
  • ENGT 103 - Engineering Terminology


    (F)
    Lecture Hours: 3
    Lab Hours: 2
    Credit Hours: 4

    Terminology, symbols, and units commonly used in the engineering field. Interpretation and reproduction techniques of engineering drawings and graphs. A brief overview of the field of civil engineering. This course is designed primarily for the Office Systems Technology program.

  
  • ENGT 104 - Electrical and Electronic Nomenclature and Symbols


    (W)
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    A survey course in basic electricity and electronics, emphasizing terminology and nomenclature. This course is designed primarily for the Office Systems Technology program.

  
  • ENGT 107 - Seminar


    Credit Hours: (Hours to be arranged each term.)

  
  • ENGT 207 - Seminar


    Credit Hours: (Hours to be arranged each term.)

  
  • ENGT 307 - Seminar


    Credit Hours: (Hours to be arranged each term.)

  
  • ENGT 310 - Introduction to Geothermal Energy


    (S)
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Overview of geothermal energy: distribution, geology, hydrology, and geochemistry; exploration and extraction techniques; uses including power generation, space heating, agriculture, process and multistage utilization; and environmental, economic, and legal considerations. Field trips to local sites.

  
  • ENGT 311 - Passive Solar and Solar Cell Design


    (W)
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Residential passive solar heating and superinsulation construction techniques including heat load calculations using the Balcomb SHF method. Technical and economic analysis of solar electric cells, storage batteries, and inverter technology.

    Prerequisite: PHY 202  or instructor consent
  
  • ENGT 312 - Critical Path Techniques


    (F)
    Lecture Hours: 1
    Lab Hours: 3
    Credit Hours: 2

    Scheduling techniques used by management on engineering and industrial projects. The course will concentrate on the Critical Path Method (CPM), but will also include comparisons with Gantt charts and Program Evaluation Review Technique (PERT). Concepts will be applied to mini-projects in class and expanded through the use of selected computer software packages.

  
  • ENGT 370 - Introduction to Automation and Robotics


    Lecture Hours: 2
    Lab Hours: 3
    Credit Hours: 3

    A survey of automation and all areas of robotics with an emphasis on the industrial robot. It will include history, terminology, use, future, impact on society, and hands-on laboratories.

    Prerequisites: MATH 112  and a programming course
  
  • ENGT 390 - Co-op Field Practice


    (F,W,S)
    Credit Hours: (Variable Credit)

    An approved work program related to the student’s field of specialization for a continuous three-month or six-month period. The employer and the type, level, and difficulty of the particular job must be approved by the student’s Engineering Technology Department prior to the employment period. A written comprehensive report of each season’s activity must be submitted during the following term of residence.

    Prerequisites: Associate degree and two terms of residence
  
  • ENGT 391 - Co-op Field Practice


    (F,W,S)
    Credit Hours: (Variable Credit)

    An approved work program related to the student’s field of specialization for a continuous three-month period.

  
  • ENGT 407 - Seminar


    Credit Hours: (Hours to be arranged each term.)

  
  • ENGT 415 - Occupational Safety


    (S)
    Lecture Hours: 2
    Lab Hours: 3
    Credit Hours: 3

    Topics include current occupational safety and health issues. Practical application of regulations in the industrial setting. Compliance to Industrial Hygiene and General Safety Standards. Common safety violations and implementation of safety programs.

    Prerequisite: Junior standing in MFG
  
  • ENGT 471 - Microprocessor Application in Automation and Robotics


    Lecture Hours: 2
    Lab Hours: 3
    Credit Hours: 3

    This is an applied course in using microprocessors to support controlling motion, such as in robotic manipulators and automated equipment and interfacing sensor inputs.

    Prerequisites: CST 331  and ENGT 370 
  
  • ENGT 490 - Co-op Field Practice


    (F,W)
    Credit Hours: (Variable Credit)

    An approved work program related to the student’s field of specialization for a continuous three-month or six-month period. The employer and the type, level, and difficulty of the particular job must be approved by the student’s Engineering Technology Department prior to the employment period. A written comprehensive report of each season’s activity must be submitted during the following term of residence.

    Prerequisites: Associate degree and two terms of residence
  
  • ENGT 491 - Co-op Field Practice


    (Su)
    Credit Hours: (Variable Credit)

    An approved work program related to the student’s field of specialization for a continuous three-month period.

  
  • ENGT 500 - Research Methods


    (F)
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Study of industrial analytical techniques used to develop new technologies, including the use of computer aided engineering systems and software for design purposes. Examination of research and development methods, current industrial practices and applications of new technologies.

  
  • ENGT 507 - Seminar


    Credit Hours: (Hours to be arranged each term.)

    In-depth examination of current theories, research, trends and processes of industry. Individual study, information exchange, and research of selected industrial topics.

  
  • ENGT 518 - Data Communications


    (F)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Data communications and computer network protocols, hardware elements, and software algorithms. Error handling, routing, flow control, host-to-host communications, and local area networks.

  
  • ENGT 521 - ASIC Design I


    (F)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Techniques for designing Application Specific Integrated Circuits (ASICs). Comprehensive study of computer concepts using computer aided design tools. Implementation of ASIC devices in digital computing systems including: modeling (using VHDL), digital synthesis, place and routing functions, and layout. Design exercises accomplished using hardware description languages and simulation.

    Prerequisite: VLSI or ASIC coursework or experience
  
  • ENGT 522 - ASIC Design II


    (W)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Techniques used to transform hardware description language-based designs to physical layout. Applications of synthesis tools for floor planning and layout of Application Specific Integrated Circuits. Comprehensive study of logic design, layout generated design, and advanced CMOS circuit techniques used when designing with standard cells.

    Prerequisite: ENGT 521 
  
  • ENGT 523 - Advanced ASIC Design


    (S)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Introduction to very large scale integration (VLSI) technology and design of CMOS integrated circuits including: the device fabrication process and design rules as they apply to device layout. Analysis, design, simulation and layout rules presented. Logic gates and function design, simulation and physical layout.

    Prerequisite: ENGT 522 
  
  • ENGT 545 - Advanced Microcomputers


    (S)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Microprocessor technology and its application to the design of practical digital computing systems. Design techniques used to develop and design newer generation microprocessor-based computing systems. Assembly language programming and interfacing of microprocessor-based systems.

    Prerequisite: Microprocessor coursework or experience
  
  • ENGT 546 - Advanced Computer Architectures


    (W)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Advanced topics in computer architectures including design of computer hardware, organizational structures, and architectural properties of parallel, vector and multiprocessing systems. Computer organizational structures of memory and I/O subsystems, multiprocessor computer architectures, and data flow computers.

    Prerequisite: Course work or experience in computer architecture and organization
  
  • ENGT 565 - Semiconductor Device Physics and Processes


    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Simple models and physical insight to solid state physics. Crystal structure and symmetry, crystal lattices, reciprocal lattices, equilibrium and non-equilibrium processes in semiconductors. Thermal properties, energy band, and semiconductor properties.

  
  • ENGT 581 - Master’s Project I


    (F,W)
    Lecture Hours: 1
    Lab Hours: 9
    Credit Hours: 4

    Students prepare the proposal for the Master’s project under the guidance of a project advisor. Project proposal guidelines and accepted format presented. Approval of the proposal by the student’s project committee constitutes completion of the course.

  
  • ENGT 582 - Master’s Project II


    (F,W,S)
    Lecture Hours: 1
    Lab Hours: 9
    Credit Hours: 4

    Students complete task specified by the project advisor. Preliminary results of the student’s project presented to the student’s project committee. Acceptance of these results constitutes completion of the course.

    Prerequisite: ENGT 581 
  
  • ENGT 583 - Master’s Project III


    (W,S)
    Lecture Hours: 1
    Lab Hours: 9
    Credit Hours: 4

    Students produce the final report demonstrating the completion of the project. Final results of the student’s Master’s project presented to the student’s project committee. Acceptance of the report by the student’s project committee constitutes completion of the course.

    Prerequisite: ENGT 582 

Environmental Sciences

  
  • ENV 107 - Seminar


    Credit Hours: (Hours to be arranged each term.)

    Prerequisite: ENV major or instructor consent
  
  • ENV 111 - Introduction to Environmental Sciences


    (F)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    A topical overview of environmental sciences stressing the integration of the social, natural and physical sciences. Emphasis on active learning.

  
  • ENV 207 - Seminar


    Credit Hours: (Hours to be arranged each term.)

    Prerequisite: ENV major or instructor consent
  
  • ENV 214 - Watershed Science & Technology


    (F,S)
    Lecture Hours: 2
    Lab Hours: 3
    Credit Hours: 3

    Science and technology of watershed processes, monitoring, and assessment. Applications and case studies focused on sustainable management and restoration of water resources and their associated aquatic, riparian, and upland ecosystems. Local and regional sites of interest are highlighted.

    Prerequisite: ENV 111  or GEOG 105 , or instructor consent
  
  • ENV 224 - Scientific Reasoning and Methodology


    (W)
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Fundamental principles and practices of scientific reasoning and methodology, including contrasts with other ways of making knowledge, the power of questions, theories versus hypotheses, understanding experiments, supporting claims, drawing inferences, reproducibility, and coping with uncertainty in typical uncontrolled natural experiments.

    Prerequisite: ENV 111  or GEOG 105 , or instructor consent
  
  • ENV 226 - Environmental Data Analysis


    (S)
    Lecture Hours: 2
    Lab Hours: 3
    Credit Hours: 3

    Introduction to compilation, manipulation, and analysis of datasets common to environmental analysis. Includes measures of central tendency and spread; characterizing data distribution; linear regression; exceedance probability and cumulative frequency functions; understanding time series; and basic principles of graphical data displays.

    Prerequisite: ENV 111  or GEOG 105 , or instructor consent
  
  • ENV 265 - Field Methods in Environmental Sciences


    (F)
    Lecture Hours: 1
    Lab Hours: 6
    Credit Hours: 3

    Basic principles of experimental design, site and instrument selection for field research. Basic instrumentation and data acquisition techniques are used to contribute to authentic research programs at different locations alongside environmental science professionals.

  
  • ENV 275 - Careers in Environmental Sciences


    Lecture Hours: 2
    Lab Hours: 0
    Credit Hours: 2

    Survey of specialties and careers in environmental sciences, including educational requirements. Jobs in government, non-government (non-profit), and private sectors are presented and discussed. Faculty support for student job searches.

  
  • ENV 307 - Seminar


    Credit Hours: (Hours to be arranged each term.)

    Prerequisite: ENV major or instructor consent
  
  • ENV 314 - Environmental Management and Restoration


    (W)
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Overview of legislative, regulatory, and policy-based activities involving the development, management, and restoration of natural resources and ecosystem services. Emphasis on the National Environmental Policy, Clean Water, and Endangered Species Acts, with illustrative case studies from local and regional environments.

    Prerequisite: ENV 275  
  
  • ENV 336 - Environmental Hydrology


    (S)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Study of the hydrologic cycle; quantitative measurement of precipitation, infiltration, runoff, streamflow and storage in watersheds. Curve fitting, hydrographic analysis, statistical analysis of extreme flows, flood routing and runoff modeling for small and urban watersheds.

    Prerequisites: MATH 252  and MATH 361  
  
  • ENV 365 - Advanced Field Methods in Environmental Sciences


    (F)
    Lecture Hours: 1
    Lab Hours: 6
    Credit Hours: 3

    Advanced principles of experimental design, site and instrument selection for field research. Advanced instrumentation and data acquisition techniques are used as part of authentic research programs at different locations alongside environmental science professionals. Course may be repeated for credit.

    Prerequisites: MATH 112  and WRI 122 
  
  • ENV 407 - Seminar


    Credit Hours: (Hours to be arranged each term.)

    Prerequisite: ENV major or instructor consent
  
  • ENV 427 - Greenhouse Gas Accounting/Footprints


    (S)
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Course topics include US and international greenhouse gas (GHG) management policies. GHG assessment methods and tools, emissions trading programs, climate risk and risk management, data and information sources, measurement standards and protocols and related sustainability concepts and policies. Course also listed as REE 427  (cannot be used for graduation credit by students who have taken REE 427 ).

    Prerequisites: Junior or Senior standing
  
  • ENV 434 - Advanced Data Analysis


    (W,S)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Advanced concepts and methods of data analysis from field projects, data archives and other sources. Statistical hypothesis testing; analysis of variance; multi-variate, regression, spatial- and time-series; principle component analysis; data visualization; and infographics.

    Prerequisites: MATH 252  and MATH 361  
  
  • ENV 465 - Ecological Restoration & Monitoring


    (S)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Principles and practices of ecological restoration, including ecosystem assessment; evaluation; and restoration planning, design, implementation, and monitoring. Labs include field visits and evaluation of local restoration projects.

    Prerequisite: ENV 314  
  
  • ENV 469 - Treatment Wetlands


    (W)
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Treatment wetland features; biological, chemical and physical properties. Planning, design and performance assessment principles for municipal, agricultural and storm water treatment wetlands. Considers vegetation and microbiology, aerobic and anaerobic biogeochemistry, hydraulics and treatment efficiencies. Local case studies.

    Prerequisites: CHE 202  and MATH 251  
  
  • ENV 475 - Professionalism & Job Readiness


    (W)
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Practical seminar focusing on professional standards, culture, ethics, and skills to enhance communication, collegiality, and positive projection of values and self-image. Assists students with workforce transition, including job search, preparation of resume packages and portfolios, interviewing tips, and job-offer negotiation.

    Prerequisites: ENV 275  and ENV 314  
  
  • ENV 484 - Sustainable Human Ecology


    (F)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Investigation of global interconnections between humans and natural systems through the study and application of ecological principles. Ethical and ecological considerations are used to solve complex environmental problems. Laboratories involve field work with local experts.

    Prerequisite: BIO 337  or BIO 367  or BIO 377  or CE 481  or instructor consent
  
  • ENV 485 - Ecoregional Studies


    (S)
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Provides a synthetic, team-project experience focusing on landscape change, human-environment relations, and natural resource development, management, and restoration in selected ecoregions. Geographical, historical, and ecological approaches are emphasized.

    Prerequisites: BIO 337 BIO 367  or BIO 377 , and ENV 314  
  
  • ENV 495 - Research in Environmental Sciences


    (F,W,S)
    Lecture Hours: 4
    Lab Hours: 0
    Credit Hours: 4

    Supports student-initiated research projects in environmental sciences. Topic and scope must be reviewed and accepted by a faculty advisor. Registration by instructor consent. Counts as technical elective credit. May be repeated for up to nine total credits.


Geography

  
  • GEOG 105 - Physical Geography


    (F)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Comprehensive introduction to physical geography, including maps and representation of the earth’s surface, the climate system and weather phenomena, plate tectonics, landform evolution and interpretation, and human-landscape interactions. Satisfies lab science.

  
  • GEOG 106 - Cultural Geography I


    (F,W) SS
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Cultural geography of the major world developed regions other than the United States - Europe, Australia and New Zealand, the former Soviet Union, Canada and Japan. The course emphasizes the regional approach.

  
  • GEOG 107 - Cultural Geography II


    (W) SS
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    Cultural geography of the world’s underdeveloped realms - the countries of Middle and South Americas, Africa and Asia. The course emphasizes the regional approach.

  
  • GEOG 108 - Cultural Geography III


    (S) SS
    Lecture Hours: 3
    Lab Hours: 0
    Credit Hours: 3

    An introduction to cultural geography of selected world realms, namely The Middle East, South Asia, East Asia, Southeast Asia, and The Pacific Realm. Cultural imprints on the physical landscape will be discussed and regional approach emphasized.

  
  • GEOG 207 - Seminar


    Credit Hours: (Hours to be arranged each term.)

  
  • GEOG 305 - Geomorphology


    (W)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Principles and practices of land-form and landscape analysis, focusing on processes, patterns, and their interactions. Emphasis on tectonic interactions; mountains; rivers; fans and deltas; glacial and periglacial landscapes; and coastlines.

    Prerequisite: GEOG 105  or GEOL 201  
  
  • GEOG 307 - Seminar


    Credit Hours: (Hours to be arranged each term.)

  
  • GEOG 315 - Climatology & Atmospheric Science


    (W)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Overview and analysis of earth’s climate system, focusing on radiative processes; heat distribution and budgeting; atmospheric chemistry, circulation, and precipitation; ocean-land-atmospheric interactions; and long- and short-term climate change.

    Prerequisite: GEOG 105  or GEOL 201  
  
  • GEOG 335 - Soils


    (F)
    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    Processes and patterns of soil genesis and evolution, including weathering; profile development and identification; soil classification and mapping; abiotic-biotic components and interactions; and tilth, soil quality, and conservation.

    Prerequisite: GEOG 105  or GEOL 201  
  
  • GEOG 407 - Seminar


    Credit Hours: (Hours to be arranged each term.)


Geology

  
  • GEOL 107 - Seminar


    Credit Hours: (Hours to be arranged each term.)

  
  • GEOL 201 - Physical Geology


    Lecture Hours: 3
    Lab Hours: 3
    Credit Hours: 4

    A brief systematic description of the major rock-forming minerals and the three major rock groups. The events of erosion, transportation and deposition of chemically altered and physically fragmented rocks and the resulting sculpturing of the earth’s surface are discussed.

  
  • GEOL 207 - Seminar


    Credit Hours: (Hours to be arranged each term.)

  
  • GEOL 307 - Seminar


    Credit Hours: (Hours to be arranged each term.)

  
  • GEOL 407 - Seminar


    Credit Hours: (Hours to be arranged each term.)


Geographic Information Systems

  
  • GIS 103 - The Digital Earth


    (F)
    Lecture Hours: 2
    Lab Hours: 3
    Credit Hours: 3

    Introduction to the digital representation of the features and attributes of our natural world. Concepts, vocabulary, and use of GIS and GPS, and how these systems help solve geospatial problems. Integration of GNSS data into GIS. Uses of data from LiDAR and UAS (drones) are discussed.

  
  • GIS 107 - Seminar


    Credit Hours: (Hours to be arranged each term.)

 

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