2020-21 University Catalog 
    
    May 24, 2024  
2020-21 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, Su indicates Summer.

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.).

 

Radiologic Science

  
  • RDSC 407 - Seminar


    Lecture Hours: 0
    Lab Hours: 0
    Credit Hours: 12

    (Hours to be arranged each term)

  
  • RDSC 410 - Rad Science Externship


    Lecture Hours: 0
    Lab Hours: 0
    Credit Hours: 15

    Students must complete four terms (12 months) of clinical experience in both general radiography and special imaging modalities to include computerized tomography, ultrasound, nuclear medicine and/or special radiographic procedures in an affiliated hospital. The student will complete all phases of general radiography and one month in each of three of the special imaging modalities. Affiliated hospitals are approved by the Joint Review Committee on Education in Radiologic Technology. The students are under the direct supervision of qualified radiographers and radiologists.

    Prerequisite: All academic coursework in the Radiologic Science curriculum
  
  • RDSC 411 - Special Rad Sci Extern


    Lecture Hours: 0
    Lab Hours: 0
    Credit Hours: 15

    This one-term (3-month) practicum is designed to develop the skills of the student in the special imaging modalities, i.e., computed tomography, magnetic resonance imaging, ultrasound, nuclear medicine and special radiographic procedures. The student is sent to an affiliated hospital that has the required special imaging equipment to give the hands-on experience to develop competency in each of three areas chosen by the student. The student will spend one month in each selected area.

    Prerequisites: All academic coursework in the Medical Imaging program with grade “C” or better and be a Registered Technologist
  
  • RDSC 411A - Special Rad Sci Extern


    Lecture Hours: 0
    Lab Hours: 0
    Credit Hours: 7

    This two term practicum is designed to develop skills of the degree completion student in special imaging modalities of computed tomography, magnetic resonance imaging, cardiovascular/interventional technology, mammography, quality assurance, nuclear medicine technology, or sonography. The student selects a local hospital or medical center that has the necessary equipment. Upon approval of the facility, the student begins a supervised experience to develop competencies in each of three chosen areas.

    Prerequisites: All academic coursework in the Medical Imaging program with grade “C” or better and an ARRT registered technologist in good standing
  
  • RDSC 411B - Special Rad Sci Extern


    Lecture Hours: 0
    Lab Hours: 0
    Credit Hours: 8

    This two term practicum is designed to develop skills of the degree completion student in special imaging modalities of computed tomography, magnetic resonance imaging, cardiovascular/interventional technology, mammography, quality assurance, nuclear medicine technology, or sonography. The student selects a local hospital or medical center that has the necessary equipment. Upon approval of the facility, the student beigns a supervised experience to develop competencies in each of three chosen areas.

    Prerequisites: All academic coursework in the Medical Imaging program with grade “C” or better and an ARRT registered technologist in good standing
  
  • RDSC 471 - Clinical Imaging Ed I


    Lecture Hours: 1
    Lab Hours: 0
    Credit Hours: 1

    Development and application of clinical education objectives relating to medical imaging technology. Instruments used to evaluate student clinical performance and competence.

    Prerequisite: RT(R) (ARRT)

Renewable Energy Engineering

  
  • REE 107 - Seminar


    Lecture Hours: 0
    Lab Hours: 0
    Credit Hours: 15

    (Hours to be arranged each term.)

  
  • REE 201 - Intro to Renewable Energy


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

    An introduction to renewable energy. Topics include photovoltaics, solar thermal systems, green building, fuel cells, hydrogen, wind power, waste heat, biofuels, wave power, tidal power and hydroelectric. Discussions of economic, environment, politics and social policy are integral components of the course.

    Prerequisite: MATH 111 
  
  • REE 207 - Seminar


    Lecture Hours: 10
    Lab Hours: 0
    Credit Hours: 10

    (Hours to be arranged each term.)

  
  • REE 243 - Electrical Power


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

    Fundamentals of electrical power. Power systems components and equipment. Fundamental analysis and design of electrical power systems.

    Prerequisites: EE 223 , MATH 252 , and PHY 222  
  
  • REE 253 - Electromech Energy Conversion


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

    Motoring and generating principles for direct current, syncronous, and induction machines. Analysis and design of motor and generator power and control circuits.

    Prerequisites: EE 223 , MATH 252 , and PHY 222  
  
  • REE 307 - Seminar


    Lecture Hours: 12
    Lab Hours: 0
    Credit Hours: 12

    (Hours to be arranged each term.)

  
  • REE 331 - Fuel Cells


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

    Introduction to fuel cell technologies: PEM, PAFC, AFC, SOFC, MCFC and DMFC systems. Fuel cell components and systems; field flow plates, electrolytes, electrode materials, electrode catalysts, on-board reformers. Portable devices, utility-scale power production, transportation systems. Fuel types and fuel storage.

    Prerequisites: CHE 260  with grade “C” or better and PHY 222  
  
  • REE 333 - Batteries


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

    This course covers fundamentals of the most important battery types including alkaline, zinc-air, lead-acid, nickel-cadmium, nickel-metal hydride, lithium ion, and lithium polymer. Applications include stationary, transportation, and portable batteries. The lab deals with battery system design, testing, and prototype assembly.

    Prerequisite: CHE 260  with grade “C” or better
  
  • REE 335 - Hydrogen


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

    This course will cover hydrogen production, storage, distribution, and use. Specific energy scenarios such as renewable hydrogen cycles will be explored focusing on transportation applications. The concept of hydrogen economy will be discussed in the context of global energy crisis.

    Prerequisite: CHE 260  with grade “C” or better
  
  • REE 337 - Materials for RE Applications


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

    Electrical, mechanical, thermal, chemical, optical and processing properties of material in renewable energy systems; solid state device characteristics and their material properties. Engineering applications.

    Prerequisites: CHE 202  and CHE 205  or CHE 222 , and PHY 223  
  
  • REE 344 - Nuclear Energy


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

    Introduction to nuclear energy. Atomic and nuclear physics; the interaction of radiation and matter. Nuclear reactor operation; reactor components, nuclear cycles, neutron diffusion and moderation. Reactor shielding. Fuel reprocessing and wasted disposal. Reactor licensing and safety. Economics and environmental concerns.

    Prerequisites: CHE 202  and CHE 205  or CHE 222 , and PHY 223  
  
  • REE 345 - Wind Power


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

    Introduction to power production from wind resources. Historical uses of wind resources. The Earth’s wind systems. Physics of wind power. Vertical and horizontal axis turbines. Aerodynamics of wind turbines. Large scale turbine farms and sighting. Commercial development, economics and environmental impacts.

    Prerequisites: MECH 326  or REE 253 , and PHY 222  
  
  • REE 346 - Biofuels and Biomass


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

    Introduction to power production from biomass resources. Historical uses of biomass resources. Biomass as a solar energy store; forestry and agricultural sources, crop wastes. Recycled sources; municipal solid wastes, landfill gas. Gaseous fuels, anaerobic digestion, gasification, liquid fuels, fermentation, hydrolysis, transesterfication.

    Prerequisites: CHE 202  and CHE 205 , or CHE 222 , and PHY 222  
  
  • REE 347 - Hydroelectric Power


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

    Introduction to hydro-resource power production. Hydro power in history. Physics of hydrology. Power, head, flowrate. Turbine hydrodynamics; Francis, Kaplan, Pelton, Turgo, cross-flow. System components: generators, governors, penstocks, spillways, valves, gates, trashracks. Large-scale and microhydroelectric systems. Pumped storage. Economic, environmental considerations.

    Prerequisite: MECH 318  
  
  • REE 348 - Solar Thermal Energy Systems


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

    Introduction to solar thermal energy systems for residential, commercial and industrial applications. Solar radiation; topics in heat transfer; flat plate and concentrating collectors; non-imaging optics; applications including water heating, building heating, cooling, industrial process heat, distillation solar thermal power systems.

    Prerequisite: ENGR 355 
  
  • REE 407 - Seminar


    Lecture Hours: 12
    Lab Hours: 0
    Credit Hours: 12

    (Hours to be arranged each term.)

  
  • REE 412 - Photovoltaic Systems


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

    The solar resouce, sun charts, site assessments. Grid-connected and stand-alone systems. Module and array performance, PV systems components including batteries, modules, charge controllers, maximum power point trackers, inverters. Economic considerations including investment tax credits, present-vaulue analysis, IRR. Advanced PV materials.

    Prerequisite: EE 321  and PHY 223  
  
  • REE 413 - Electric Power Conv Systems


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

    Power electronics devices in energy applications. DC-DC MPPT and charge controllers. Advanced inverter controls and applications. FACTS and HVDC systems and equipment.

    Prerequisite: EE 419  
  
  • REE 425 - Electricity Markets & Modeling


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

    Introduction to restructured electricity markets. Students gain knowledge of theory, structures, successes and failures of markets, market participant behavior, risk, and uncertainty, and basic simulation and optimization modeling for market analyses.

    Prerequisites: ECO 201  or ECO 202 , and EE 221 , all with grade “C” or better 
  
  • REE 427 - Greenhouse Gas Acct/Footprints


    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 tools, emissions trading programs, climate risk and management, data and information sources, measurement standards and protocols, and related sustainability concepts and policies. Cross-listed as ENV 427. Cannot be used for graduation credit by students who have taken ENV 427.

    Prerequisites: Junior or Senior standing, MATH 361  or MATH 465  with grade “C” or better, and WRI 227  with grade “C” or better, or instructor consent
  
  • REE 431 - Geotherm Heat Pump Desgn


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

    Theory/design of geothermal heat pum applications, emphasis ground heat exchanger simulation and design. Closed-loop, open-loop, and hybrid geothermal heath pump systems will be examined. Exposure to the development and use of geothermal design and simulation tools.

    Prerequisite: MECH 323  
  
  • REE 439 - Energy Systems Auditing and Management


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

    Evaluating building thermal/electric/process loads, including lighting, hot water, HVAC and central plant systems, industrial refrigeration and motors. Opportunities for managing energy use through controls and operations/maintenance strategies. Roles of commissioning, energy auditing, renewables, and economic analysis in reducing use.

    Prerequisite: MECH 323  
  
  • REE 451 - Geo Enrgy & direct use app


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

    Introduction to basic geothermal energy sources and generation. Basic geothermal energy applications including direct use, heat pumps and power generation. Geothermal reservoir, site analysis, exploration and drilling. Direct use application system design (HVAC) and equipment.

    Prerequisite: ENGR 355  
  
  • REE 453 - Power System Analysis


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

    Faults: symmetric, unsymmetric. Modeling system components using positive, negative, zero sequence networks. System admittance matrixes. Load flow computational methods such as Gauss-Seidel, Newton-Raphson. Power system stabilization. Power system analysis using software, emphasizing renewable resources.

    Prerequisite: REE 243  
  
  • REE 454 - Power Syst Protection & Ctnrl


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

    Protection systems overview; protective devices; coordination and sequencing of relays; grounding practices; impedance protection. Methods of power systems operation and control; load-frequency control, automatic generation control. Modeling power systems protection and control using power system analysis software, emphasizing renewable resources.

    Prerequisite: REE 453 
  
  • REE 455 - Energy Efficient Building Dsgn


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

    Principles of integrated, energy-efficient building design. Interpretation/application of codes, standards. Use of software tools for modeling, simulation of building energy systems. Daylighting, natural ventilation, architectural features of passive solar buildings. Inclusion of renewable resources, and net-zero designs. Life-cycle economic analysis.

    Prerequisite: MECH 323 
  
  • REE 463 - Energy Systems Instrumentation


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

    Application of electrical and mechanical sensors, data acquisition, logic controllers as applied to energy systems. Determination of physical parameters necessary for control and data-logging. Methods of calibration and correction.

    Prerequisite: EE 321 
  
  • REE 465 - Renewable Energy Transport Sys


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

    Renewable energy transportation systems including fuel cells, hybrid gasoline-electric engines, electric vehicles, bio-diesel, flex-fuel vehicles, high efficiency diesel engines, gas turbine prime-mover systems. Topics include fuel air mixing, fuel storage, fuel delivery, cooling, fuel leak detection, chemical safety, and electrical power control systems.

    Prerequisites: MECH 326  or REE 253   
  
  • REE 469 - Grid Integration of Renewables


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

    Issues unique to connecting renewable energy generation to the grid. Microgrids. Stability, transient and harmonic effects. Interconnect agreements and requirements. Standard development. SCADA and smart grid concepts. Systems optimization.

    Prerequisite: REE 453  
  
  • REE 471 - Geothermal Powr Plnt Desgn


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

    Introduction to geothermal reservoir pressure, temperature and flow models, and analysis. Basic geothermal power plant equipment and design for dry team, single/double flash and binary cycle power plants. Plant thermodynamic analysis/efficiency using Rankine/Kalina cycles. Plant environmental, economic and social impacts.

    Prerequisite: ENGR 355 
  
  • REE 511 - Research Methods/Innovation I


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

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

  
  • REE 512 - Research Methods/Innov II


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

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

  
  • REE 513 - Research Methods/Innov III


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

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

  
  • REE 515 - Energy Engineering I


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

    Three-term sequence in energy engineering. For a variety of renewable and conventional means of energy production, storage, and distribution, students gain a robust understanding of resources, energy conversion technology, integration with existing systems, regulatory contexts, business environment, and future trends.

  
  • REE 516 - Energy Engineering II


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

    Three-term sequence in energy engineering. For a variety of renewable and conventional means of energy production, storage, and distribution, students gain a robust understanding of resources, energy conversion technology, integration with existing systems, regulatory contexts, business environment, and future trends.

  
  • REE 517 - Energy Engineering III


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

    Three-term sequence in energy engineering. For a variety of renewable and conventional means of energy production, storage, and distribution, students gain a robust understanding of resources, energy conversion technology, intergration with existing systems, regulatory contexts, business environment, and future trends.

  
  • REE 521 - Production of Biomass/Biofuels


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

    The use of recently living plant or animal materials as sources of fuels, chemicals or industrial products. Sourcing and production. Biomass chemistry; lignocellulosics, fats, oils, saccharides, polysaccharides, proteins, and extractables. Chemical modification of biomass to produce fuels, polymers, industrial chemicals.

  
  • REE 523 - Hydrogen Productn and Storage


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

    An overview of primary technologies, economic aspects, and social policy issues related to development of hydrogen systems and hydrogen economy, including water electrolsis, reformer technologies, and hygdrogen storage.

  
  • REE 525 - Solid-State Physics/Photov Mat


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

    Principles of PV; electrons and holes in semiconductors; junction analysis. Survey of available semiconductors and materials choices for photovoltaic design. Principles of important photovoltaic devices. Monocrystalline, polycyrstalline, and thin film solar cells. Strategies for high efficiency. Photovoltaic materials and phenomena.

  
  • REE 527 - Wind Power Generators


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

    AC machines, particularly three-phase induction and synchronous generators for wind power generation. Equivalent circuit models. Wound-rotor, permanent magnet, multi-pole, and switched-reluctance generators. Power and torque control.

  
  • REE 529 - Power System Analysis


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

    Faults: symmetric, unsymmetric. Modeling system components using positive, negative, zero sequence networks. System admittance matrixes. Load flow computational methods such as Gauss-Seidel, Newton-Raphson. Power system stabilization. Power system analysis using software, emphasizing renewable resources. Requires background in power systems.

  
  • REE 531 - Ground-Source Heat Pumps


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

    Heat pump design and operation. Heat pump cycles. Refrigerant selection. Ground-loop design. Heat transfer issues pertaining to geothermal energy. System design and integration. Temperature and materials issues unique to geothermal heat pumps.

  
  • REE 533 - Heating, Ventilation/Air Condi


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

    Heating, ventilating, and air conditioning. Application of laws and principles of thermodynamics to analysis, design, and control of mechanically-controlled environments for human comfort, animal health, and food preservation. Teaches computation of heating and cooling loads, humidity control, heating, and refrigeration.

  
  • REE 535 - Fuel Cell Fundamentals


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

    Basic science and technology of fuel cells, electrode processes, electrolyte types, catalysts, and balance of plant components.

  
  • REE 537 - Sustainability/Energy Systems


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

    Comprehensive examination and classification of the local, regional, and global environmental and social aspects of energy use including lifecycle assessments. Impacts of global and national politics on energy use decisions.

  
  • REE 539 - Hydraulics/Fluid Mech/Hydropow


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

    Open-channel hydraulics, including watershed hydrology, sediment transport and bed load movement, reservoirs, hydrostatics, dredging, spillways, silling basins, and hydraulic jumps. Advanced fluid mechanics. Types of turbines Modeling and unit optimization. Background in fluid mechanics required.

  
  • REE 541 - Utiliztn Strategies/Bioenergy


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

    Stategies for sustainable energy production from biomass. Direct combustion. Fermentation processes. Anaerobic digestion systems. Thermochemical processes; gasification, liquiefaction. Chemical synthesis pathways.

  
  • REE 543 - Matrls f/Electrochemical Proc


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

    Materials used for batteries, fuel cells, elctrolyzers, and supercapacitors; their classification, selection and properties, including nanocatalysts, polymer electrolytes, ceramic and plastic packaging materials, and metals.

  
  • REE 545 - Applied Photovoltaics


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

    The characteristics of sunlight. Solar cell behavior, properties, and design. Cell interconnection and module fabrication. Designing stand-alone and grid-connected photovoltaic systems. Special-purpose photovoltaic applications. Concentrator and hybrid solar thermal and photovoltaic systems. Advanced photovoltaic systems.

  
  • REE 547 - Electric Power Conversion


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

    Electric power conversion for wind generators. Review of power switching devices. Rectifiers, DC-DC converters, inverters. Pulse-width modulation. Converter topologies. Doubly-fed induction generators. Reactive power compensation

  
  • REE 549 - Power System Protection/Contrl


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

    Protection systems overviwe; protective devices; coordination and sequencing of relays; grounding practices; impedance protection. Methods of power systems operation and control; load-frequency control, automatic generation control. Modeling power systems protection and control using power system analysis software, emphasizing renewable resources.

    Prerequisite: REE 529 
  
  • REE 551 - Advanced Geothermal Energy


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

    Classification of geothermal resources. Basics of geothermal wells and drilling. Resource capacity estimation and measurement. System design and integration. Application such as aquaculture, greenhouses, and district heating.

  
  • REE 553 - Energy Systems Mgmt/Auditing


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

    Evaluating building thermal/electric/process loads, including lighting, hot water, HVAC and central plant systems, industrial refrigeration and motors. Opportunities for managing energy use through controls and operations/maintenance strategies. Roles of commissiong, energy auditing, renewables and economic analysis in reducing energy use.

  
  • REE 555 - Stationary Fuel Cells


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

    Advanced treatise of fuel cell systems for large, stationary applications with detailed examination of polymer electrolyte membrane, alkaline, phosphoric acid, molten carbonate, and solid-oxide systems, their design, performance, lifetime and reliability, modeling, and economics.

  
  • REE 557 - Costing Renewable Energy


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

    Renewable energy in micro-and macraeconomic contexts. Review and discussion of current energy market structures, prices, effects of inflation and incentives, affordability, costs of supply reliability, investment criteria, and modeling market trends.

  
  • REE 559 - Develop of Hydropower Proj


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

    Mechanical and electrical equipment, including flow control elements, generators, transformers, protection and control equipment, and governors. Transient responses and stability. The engineering, procurement and construction process for hydropower projects. Commissioning and documentation.

  
  • REE 561 - Process Desgn/Econ Eval f/BES


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

    Process engineering methods, including development of process and instrumentation diagrams (P&ID); equipment selection and sizing; cost estimation, economic evaluation, and fundamentals of chemical process safety.

  
  • REE 563 - Batteries


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

    Comprehensive overview, integration characteristics, and performance comparision of battery systems for transportation and stationary applications, including lead-acid, nickel metal hydride, nickel cadmium, sodium-sulfur, lithium polymer, and lithium ion.

  
  • REE 565 - Semiconductor Process Enginrng


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

    Semiconductor process technology; crystal growth, silicon oxidation, photolithography, etching, diffusions, ion implantation, film deposition. Process integration, manufacturing, and metrology. Future trends and challenges.

  
  • REE 567 - Wind Energy Systems Integratn


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

    Wind system electric power integration, protection, and control. System components, including generators, transformers, and switching stations. Network stability. Energy sector regulation and markets. Forcasting and integration of wind power systems.

  
  • REE 569 - Grid Integration of Renewables


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

    Issues unique to connecting renewable energy generation to the grid. Microgrids. Stability, transient, and harmonic effects. Interconnect agreements and requirements. SCADA and smart grid concepts. System optimization.

    Prerequisite: REE 549 
  
  • REE 571 - Geothermal Power Generation


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

    High-enthalpy resources suitable for electric power generation. Energy transfer and conversion. Plant design and integration. Advanced design such as absorption power cycles.

  
  • REE 573 - Energy-Efficient Bldg Design


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

    Principles of integrated, energy-efficient building design. Interpretation/application of codes, standards. Use of software tools for modeling, simulation of building energy systems. Daylighting, natural ventilation, architectural features of passive solar buildings. Inclusion of renewable resources and net-zero designs. Life-cycle economic analysis.

  
  • REE 575 - Transporation Fuel Cells


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

    Detailed assessment of advances, prospects, and economics of polymer electrolyte membrane fuel cell, operational characteristics, durability, manufacturing, and fuel storage options in the automotive applications.

  
  • REE 577 - Renewable Energy Integration


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

    Discussion based-class on the integration of renewable energy into the established electric grid, focusing on energy availability, reliability, options for integration, matching demand, and balancing economic options on global, regional, and local scales.

  
  • REE 579 - Econ/Reg/Envir Aspects Hydrop


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

    Duration curves and generation studies. FERC permitting and licensing, including compliance. Power sales contracts and bundled services. Environmental impact assessments. Project financing, management, and operations requirements. Optimization of integrated hydropower systems.

  
  • REE 581 - Energy Storage Fundamentals


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

    The survey course will examine energy storage fundamentals; applications and trends for pumped hydro, compressed air, flywheels, superconducting magnetic energy storage, gravitational mass, supercapacitors, batteries, fuel cells, and thermal systems.

  
  • REE 582 - Introduction to Batteries


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

    The course provides introduction to field of batteries and discusses electrochemical fundamentals and general properties of batteries such as energy density, specific power, charging and discharging, temperature effects, aging, and self-discharge.

  
  • REE 583 - Intro to Fuel Cells


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

    This overview course will introduce students to fundamental fuel cell prinicples, history, classification, thermodynamics, efficiency and causes of voltage losses, reaction kinetics, electrode performance and catalyst design, and fuel cell components and their impact on performance.

  
  • REE 591 - Hydrogen Prod & Storage


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

    The course will discuss the basics of hydrogen production and storage, the concept of hydrogen economy, conventional hydrogen generation, electrochemical and photochemical technologies, principles of hydrogen storage and novel storage materials.

  
  • REE 592 - Advanced Batteries


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

    This course will examine technology and trends in battery chemistry, manufacturing, pack assembly, characterization, safety, economics and applications for battery systems including lead acid, nickel-based, lithium ion, lithium polymer, metal air and flow batteries.

  
  • REE 593 - Advanced Fuel Cells


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

    This course provides in an in-depth analysis of the current trends, fuel processing, novel materials, applications, safety, and characterization for polymer electrolyte membrane, alkaline, phosphoric acid, molten carbonate, solid oxide, and direct methanol fuel cells.

  
  • REE 599 - Graduate Research or Project


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

    Graduate research leading to the completion of a master’s thesis or project. Minimum of three terms required.

    Prerequisite: Advisor consent

System Engineering and Technology Management

  
  • SEM 421 - Systems Engineering


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

    Foundations of Systems Engineering: Structure of Complex Systems; System Development Processes and Frameworks; System Engineering Validation, Reliability, Availability, Maintainability and Deployment; Human Factors Engineering.

    Prerequisites: MATH 253  (or MATH 253N), or MATH 254  (or MATH 254N), or MATH 341 , and WRI 227  
  
  • SEM 422 - Advanced Systems Engineering


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

    Advanced concepts in systems science and systems engineering; modeling and mathematical methods for systems engineering; system simulation tools; optimization and decision analysis; case studies involving practical systems engineering integration of hardware, software, information, and human factor systems.

    Prerequisites: MATH 243  or MATH 361  or MATH 465 ; and MGT 345  and WRI 227 , or SEM 421  
  
  • SEM 425 - Advanced Engineering Mgmt


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

    Competitive Strategic Frameworks (Porter, RBV, Delta); Strategic Execution Framework; Project Management (PMBOOK); Financial Management; New Product Development; Case Studies.

    Prerequisite: MGT 345  or SEM 421   
  
  • SEM 521 - Systems Engineering


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

    Foundations of Systems Engineering: Structure of Complex Systems; System Development Processes and Frameworks; System Engineering Validation, Reliability, Availability, Maintainability and Deployment; Human Factors Engineering.

    Prerequisite: Graduate standing
  
  • SEM 522 - Advanced Systems Engineering


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

    Advanced concepts in systems science and systems engineering; modeling and mathematical methods for systems engineering; system simulation tools; optimization and decision analysis; case studies involving practical systems engineering integration of hardware, software, information, and human factor systems.

    Prerequisite: Graduate standing
  
  • SEM 525 - Advanced Engineering Mgmt


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

    Competitive Strategic Frameworks (Porter, RBV, Delta); Strategic Execution Framework; Project Management (PMBOOK); Financial Management; New Product Development; Case Studies.

    Prerequisite: Graduate standing
  
  • SEM 526 - Case Studies in Systems Engr.


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

    Much of modern civilization is defined by technical products and services. Case Studies in Systems Engineering examines challenges firms face in creating these highly complex products and services rapidly, accurately, and cost-effectively. Selected cases represent examples of failed, successful, and prototype systems that all defined the state of the art. Through analysis and group discussions, students will critically examine issues and approached presented in numerous case studies. Students will link their own critical analysis to Systems Engineering best practices.

    Prerequisite: SEM 521  
  
  • SEM 527 - Engineering Data Analytics


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

    Engineering Data Analtics introduces students to the technologies and methodologies needed for data-driven decision-making during all stages of product development. Students will learn how to analyze, process, and establish correlations using data from various engineering processes during the design phase, prototyping phase, and production & operation phase. Students will examine large data-sets from smart homes, large-scale IoT (Internet of Things) applications, and IC design & manufacturing. Correlations will be established using Linear regression, Anova, and other data relationship techniques. Students will use advanced software tools such as Tibco Spotfire and R toe analyze ?Big Data?, establish correlations, and determine if processes are capable and in control. An introduction to machine learning and real-time streaming analysis techniques will also be discussed.

    Prerequisite: Graduate standing or MATH 465  

Sociology

  
  • SOC 107 - Seminar


    Lecture Hours: 0
    Lab Hours: 0
    Credit Hours: 15

    (Hours to be arranged each term.)

  
  • SOC 201 - Classical Sociol Theory


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

    Introduction to the early development of sociological theory. Works by Marx, Weber, Durkheim, Parsons and Goffman will be discussed in terms of their contribution to the discipline of sociology.

  
  • SOC 202 - Contemporary Soc Theory


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

    Theories on the social construction of self, social and population structures, gender inequality, global capitalism and deviance are explored in the context of contemporary social issues.

    Prerequisite: SOC 201 
  
  • SOC 204 - Intro to Sociology


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

    Survey of human relationships and interaction of organized groups and institutions in modern society. Emphasis on attitudes, values, beliefs, customs and change within our complex social structure.

  
  • SOC 205 - Current Health Issues


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

    An introduction to the most pressing health issues in contemporary society, including aging, healthcare reform, cost of healthcare, and amenable mortality.

  
  • SOC 206 - Social Problems


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

    A sociological exploration of contemporary social problems, including crime, illness, poverty, unemployment, immigration, gender inequality, LGBT issues, and the environment.

  
  • SOC 207 - Seminar


    Lecture Hours: 6
    Lab Hours: 0
    Credit Hours: 6

    (Hours to be arranged each term.)

  
  • SOC 210 - Marriage & Family Living


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

    Personal problems of the married couple in everyday living with an emphasis on adult lifestyles, relationships, sexual roles, and attitudes, family planning, family finances, and divorce and remarriage.

  
  • SOC 225 - Medical Sociology


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

    Introduction to medical sociology and social-epidemiological research, covering social causes and consequences of health and illness, the practitioner-patient relationship, health behavior, and health care organization.

  
  • SOC 235 - Intro to Sustainability


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

    An introduction to the history, theory and practice of sustainability. The focus is on human-environment interactions, highlighting how human agency can jeopardize our collective future, and how harm can be avoided through appropriate social, political, and legal action.

  
  • SOC 301 - Soc Science Research Methods


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

    Introduction to theory and methods of research in the social sciences, and interpretation of social science research.

    Prerequisites: SOC 204  and SOC 225  
  
  • SOC 302 - Soc Science Resrch Methods II


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

    Continuation of SOC 301 Social Science Research Methods: data collection, analysis, and development of social science research papers.

    Prerequisite: SOC 301  
  
  • SOC 304 - Criminology


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

    Analysis of criminal behavior from theft to homicide. Discussion of the definition of criminal behavior, varieties of crime and the criminal justice system.

    Prerequisite: SOC 204 
 

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