Apr 29, 2024  
2016-2017 Undergraduate Catalog 
    
2016-2017 Undergraduate Catalog [ARCHIVED CATALOG]

Course Descriptions


 Courses numbered from 101–299 are lower-division courses, primarily for freshmen and sophomores; those numbered from 300–499 are upper-division courses, primarily for juniors and seniors. The numbers 296, 396, 496, and 596 designate individual study courses and are available for registration by prior arrangement with the course instructor and approval of the department chair.

The number in parentheses following the course title indicates the amount of credit each course carries. Variable credit courses include the minimum and maximum number of the credits within parentheses.

Not all of the courses are offered every quarter. Final confirmation of courses to be offered, information on new courses and programs, as well as a list of hours, instructor, titles of courses and places of class meetings, is available online in My CWU which can be accessed through the the CWU home page, and go to www.cwu.edu/registrar/course-information

 

Mathematics (MATH)

  
  • MATH 335 - Combinatorics and Graph Theory


    Description:
    An introduction to discrete mathematics and graph theory, with some applications. Emphasis will be placed on proof writing.

    Prerequisites:
    Prerequisite: MATH 260 with a grade of C or higher.

    Credits: (4)

  
  • MATH 337 - Cryptological Mathematics


    Description:
    A mathematical look at code making and code breaking. Famous historical ciphers to be studied will include substitution, Hill, and Vigenere ciphers. Students will also investigate public key cryptography and signature authentication methods.

    Prerequisites:
    Prerequisites: MATH 260 and MATH 265 and MATH 272.

    Credits: (5)

  
  • MATH 351 - Point Set Topology


    Description:
    Introduction to basic concepts of point-set topology: topologies, continuity, compactness, connectedness, and separation axioms. Emphasis will be placed on proof writing.

    Prerequisites:
    Prerequisite: MATH 260 with a grade of C or higher.

    Credits: (4)

  
  • MATH 355 - College Geometry I


    Description:
    An inductive and deductive approach to intuitive geometry, modern Euclidean geometry, history of geometry, and axiomatic systems in geometry.

    Prerequisites:
    Prerequisite: admission to the mathematics education major or minor.

    Credits: (4)

  
  • MATH 360 - Algebraic Structures I


    Description:
    First course in the structure of algebraic systems includes the study of real number systems and other algebraic systems in the development of group theory.

    Prerequisites:
    Prerequisite: admission to the mathematics education major or minor.

    Credits: (3)

  
  • MATH 361 - Algebraic Structures II


    Description:
    The second course in the structure of algebraic systems, including rings, modules, and fields, and their associated morphisms.

    Credits: (3)

  
  • MATH 365 - Linear Algebra II


    Description:
    Topics from linear algebra, such as vector spaces, linear transformations, bilinear and quadratic forms, eigenvalues and eigenvectors, and inner products. Emphasis is placed on proof writing.

    Prerequisites:
    Prerequisites: MATH 265, and at least one of MATH 335 or MATH 351, both with a grade of C or higher.

    Credits: (4)

  
  • MATH 371 - Advanced Calculus


    Description:
    The basic concepts of the real numbers and calculus are presented from an axiomatic standpoint. This course also offers basic proof writing skills that are necessary for more advanced mathematics.

    Prerequisites:
    Prerequisites: MATH 272, and at least one of MATH 335 or MATH 351, both with a grade of C or higher.

    Credits: (4)

  
  • MATH 372 - Complex Analysis (Put on Reserve 9/16/16.)


    Description:
    Arithmetic of complex numbers and functions of a complex variable, linear fractional transformations, Cauchy-Riemann equations, contour integration, Cauchy’s theorem, residue theorem, power series and applications. (Put on Reserve 9/16/16. Last taught in 2012. Will go inactive 8/24/19.)

    Prerequisites:
    Prerequisites: MATH 260 and MATH 273 with grades of C or higher.

    Credits: (5)

  
  • MATH 376 - Differential Equations I


    Description:
    Elementary methods of solutions of ordinary differential equations. Some numerical methods for solving ordinary differential equations with applications.

    Prerequisites:
    Prerequisites: MATH 265 and MATH 272 with grades of C or higher.

    Credits: (3)

  
  • MATH 377 - Differential Equations II


    Description:
    Elementary methods of solutions of ordinary differential equations. Some numerical methods for solving ordinary differential equations with applications.

    Prerequisites:
    Prerequisite: MATH 376 with a grade of C or higher.

    Credits: (3)

  
  • MATH 405 - Probability and Statistics for Teachers


    Description:
    This course focuses on conceptual and procedural understanding of probability and statistics including probability, graphing, measures of center and spread, distributions, and confidence intervals. Concepts are taught from a problem solving perspective using appropriate technology.

    Prerequisites:
    Prerequisites: MATH 102 and MATH 153 and admission to the middle-level math major.

    Credits: (4)

  
  • MATH 406 - Modern Algebra for Teachers


    Description:
    This course focuses on conceptual and procedural development of algebra including logic, algebraic reasoning, equations, inequalities, patterns, sequences, functions, modeling, and polynomial algebra. Concepts are taught from a problem solving perspective using appropriate technology.

    Prerequisites:
    Prerequisites: MATH 153 and MATH 216.

    Credits: (4)

  
  • MATH 407 - Mathematics Honors Seminar - Upper-level


    Description:
    Introduction to new areas of mathematics. Exposure to open problems in mathematics, and to the practice of modern research mathematics. May be repeated up to 12 credits.

    Prerequisites:
    Prerequisite: junior standing or higher.

    Credits: (1)

  
  • MATH 410A - Advanced Statistical Methods I


    Description:
    A thorough treatment of regression and correlation. Chi-square and other enumeration statistics. Non-parametric statistical principles of experimental design. Examples will be from a variety of fields.

    Prerequisites:
    Prerequisite: MATH 311 or MATH 314 with a grade of C or higher.

    Credits: (3)

    Learner Outcomes, Activities and Assessments

    Learner Outcome

    Activity (optional)

    Assessment

    Evaluate theoretical properties of multiple regression models, including underlying model assumptions and model construction.

    Homework and in-class exercises will ask students to work with the mathematical properties of regression models.

    Graded homework exercises; final exam.

    Estimate multiple regression models.

    Statistical lab exercises will ask students to estimate multivariate regression models.

    Graded statistical lab reports, exams.

    Evaluate the appropriateness and fit of a statistical model, particularly multiple regression model, and interpret the model in context.

    Lab exercises will ask students to evaluate the fit of multiple regression models and interpret the model in the context of the particular data set.

    Graded statistical lab reports, exams.

    Estimate ANOVA models, and interpret the results.

    Lab exercises will ask students to estimate ANOVA models and interpret the model in the context of the particular data set.

    Graded statistical lab reports, exams.

    Propose a major statistical project, choosing appropriate questions to be answered and appropriate statistical tools.

    Students will submit a proposal for a major statistical project (the project itself will be completed in Math 410B).

    The project proposal will be graded in part on the appropriateness of the statistical questions and the tools proposed to be used.

    Communicate statistical results clearly orally and in writing.

    Students will submit written lab reports, a formal project proposal, and an oral presentation of their project proposal.

    The proposal and oral presentation of the proposal will be graded in part on the quality and clarity of the writing and presentation.



  
  • MATH 410B - Advanced Statistical Methods II


    Description:
    A thorough treatment of regression and correlation. Chi-square and other enumeration statistics. Non-parametric statistical principles of experimental design. Examples will be from a variety of fields.

    Prerequisites:
    Prerequisite: MATH 410A with a grade of C or higher.

    Credits: (3)

  
  • MATH 411A - Probability Theory


    Description:
    Principal topics include: combinatorial theory, conditional probability, random variables, expectation and moments, generating functions, various discrete and continuous distributions, law of large numbers, central limit theorem.

    Prerequisites:
    Prerequisite: MATH 273 with a grade of C or higher.

    Credits: (4)

  
  • MATH 411B - Mathematical Statistics I


    Description:
    Derived distributions, point and interval estimation, hypothesis testing. Correlation and regression theory. Distribution free methods. Bayesian inference.

    Prerequisites:
    Prerequisite: MATH 411A with a grade of C or higher.

    Credits: (3)

  
  • MATH 411C - Mathematical Statistics II


    Description:
    Derived distributions, point and interval estimation, hypothesis testing. Correlation and regression theory. Distribution free methods. Bayesian inference.

    Prerequisites:
    Prerequisite: MATH 411B with a grade of C or higher.

    Credits: (3)

  
  • MATH 413 - Introduction to Stochastic Processes (Put on reserve 9/16/2014.)


    Description:
    The Wiener Process, conditional probability and conditional expectation. Stationary and evolutionary processes. Various Poisson processes. Renewal counting processes. Discrete parameter Markov chains. Put on reserve 9/16/2014. Last taught in 2011. Will go inactive 8/24/2017.

    Prerequisites:
    Prerequisite: MATH 411A with a grade of C or higher.

    Credits: (5)

  
  • MATH 414 - Time Series Analysis


    Description:
    Model building, parameter estimation, diagnostic checking of time series data; ARIMA models and forecasting. Analysis of seasonal models.

    Prerequisites:
    Prerequisites: MATH 410A and either MATH 411A or MATH 314, with grades of C or higher.

    Credits: (3)

    Learner Outcomes, Activities and Assessments

    Learner Outcome

    Activity (optional)

    Assessment

    Estimate ARMA and ARIMA models for time series data.

    Students will complete statistical lab assignments which require them to estimate ARMA and ARIMA models.

    Written lab reports, exams, and a final project.

    Evaluate the fit of time series models, and choose appropriate models for a given data set.

    Students will complete statistical lab assignments which require them to choose appropriate models and evaluate the fit of their chosen models.

    Written lab reports, exams, and a final project.

    Assess time series data for trends and seasonality, and estimate models including these terms.

    Students will complete statistical lab assignments which require them to use diagnostic checks for trends and seasonality, and fit models including trends and seasonality.

    Written lab reports, exams, and a final project.

    Evaluate properties of a time series model given in mathematical form, including checking stationarity and computing the autocorrelation function of a given model.

    Students will complete homework problems that require them to check properties of a given model, including stationarity and computing the autocorrelation function.

    Graded homework problems and exams.

    Communicate statistical information professionally in writing.

    Students will write lab reports for their statistical lab assignments and complete a final project where the tools from the course are applied to a time series data set of their choosing.

    Written lab reports and the final project will be assessed using a rubric that includes the clarity and quality of the writing.



  
  • MATH 416A - Actuarial Science Problems II


    Description:
    Review of topics in probability theory important for actuaries, including probabilities, random variables, moments, discrete, continuous, joint, and conditional distributions, and limit theorems.

    Prerequisites:
    Co- or prerequisite: MATH 411B.

    Credits: (2)

    Learner Outcomes, Activities and Assessments

    Learner Outcome

    Activity (optional)

    Assessment

    Solve problems involving probabilities, conditional probabilities, and continuous and discrete random variables.

    In-class and homework exercises will ask students to work with conditional probabilities, discrete and continuous random variables, and joint, marginal, and conditional distributions.

    Graded in-class quizzes and exams; graded homework.

    Summarize common families of discrete and continuous probability distributions.

    In-class exercises will focus on identifying situations where common families of distributions apply; students will complete a chart of common families of distributions.

    Graded in-class quizzes and exams; graded homework.

    Apply terminology from insurance to probability questions.

    In-class exercises will focus on terminology such as deductible, policy limit, and proportional insurance.

    Graded in-class quizzes and exams; graded homework.

    Choose appropriate tools from probability to solve problems similar to those on the actuarial Exam P.

    In-class exercises and homework problems will require students to choose appropriate tools from probability theory.

    Graded in-class quizzes and exams; graded homework.



  
  • MATH 416B - Actuarial Science Problems III


    Description:
    Review of topics in financial mathematics important for actuaries, including time value of money, annuities, loans, bonds, and derivatives markets.

    Prerequisites:
    Co- or prerequisite: MATH 418C.

    Credits: (2)

  
  • MATH 417A - Loss Models I


    Description:
    Modeling process, calibration, and evaluation. Analyzing data, determining a suitable model including parameter values, and providing measures.

    Prerequisites:
    Prerequisite: MATH 411A with a grade of C or higher.

    Credits: (3)

  
  • MATH 417B - Loss Models II


    Description:
    Modeling process, calibration, and evaluation. Analyzing data, determining a suitable model including parameter values, and providing measures of confidence for decisions based upon the model.

    Prerequisites:
    Prerequisite: MATH 417A with a grade of C or higher.

    Credits: (3)

  
  • MATH 417C - Loss Models III


    Description:
    Modeling process, calibration, and evaluation. Analyzing data, determining a suitable model including parameter values, and providing measures of confidence for decisions based upon the model.

    Prerequisites:
    Prerequisite: MATH 417B with a grade of C or higher.

    Credits: (3)

  
  • MATH 418A - Financial Mathematics I


    Description:
    Fundamental concepts and calculations for cash flows as a basis for future use in reserving, valuation, pricing, asset/liability management, investment ,and capital budgeting.

    Prerequisites:
    Prerequisite: MATH 173 with a grade of C or higher.

    Credits: (3)

  
  • MATH 418B - Financial Mathematics II


    Description:
    Fundamental concepts and calculations for cash flows as a basis for future use in: reserving, valuation, pricing, asset/liability management, investment, and capital budgeting.

    Prerequisites:
    Prerequisite: MATH 418A with a grade of C or higher.

    Credits: (3)

  
  • MATH 418C - Financial Mathematics III


    Description:
    Introduction to financial instruments, including derivatives, and the concept of no-arbitrage as it relates to financial mathematics. Introduction to financial economics and key terms: derivatives, forwards, short and long positions, call and put options, spreads, collars, hedging, arbitrage, and swaps.

    Prerequisites:
    Prerequisite: MATH 418B with a grade of C or higher.

    Credits: (3)

  
  • MATH 419A - Actuarial Mathematics I


    Description:
    Mathematics of analyzing and pricing insurance, annuities, and pension products. Life contingencies, risk theory, and techniques in reserving and valuation.

    Prerequisites:
    Prerequisite: MATH 411A with a grade of C or higher.

    Credits: (3)

  
  • MATH 419B - Actuarial Mathematics II


    Description:
    Mathematics of analyzing and pricing insurance, annuities, and pension products. Life contingencies, risk theory, and techniques in reserving and valuation.

    Prerequisites:
    Prerequisite: MATH 419A with a grade of C or higher.

    Credits: (3)

  
  • MATH 419C - Actuarial Mathematics III


    Description:
    Mathematics of analyzing and pricing insurance, annuities, and pension products. Life contingencies, risk theory, and techniques in reserving and valuation.

    Prerequisites:
    Prerequisite: MATH 419B with a grade of C or higher.

    Credits: (3)

  
  • MATH 430 - Introduction to Theory of Numbers


    Description:
    Euclidean algorithm, fundamental theorem of arithmetic, Diophantine equations, primitive roots and indices, and other number theory topics.

    Prerequisites:
    Prerequisite: MATH 260 with a grade of C or higher.

    Credits: (3)

  
  • MATH 440 - Mathematical Theory of Financial Economics


    Description:
    Concepts, principles, and techniques needed for the professional actuarial SOA/CAS Exam MFE are covered in this course. Topics to explore include interest rate models, bond price models, rational valuation of derivative securities, and delta-hedging as risk management techniques.

    Prerequisites:
    Prerequisites: MATH 411B and MATH 418C.

    Credits: (5)

  
  • MATH 451 - Topology I


    Description:
    An introduction to point-set and algebraic topology. Topics may include metric spaces, topological spaces, homotopy theory, and the fundamental group.

    Prerequisites:
    Prerequisites: MATH 260 and MATH 265 with grades of C or higher.

    Credits: (3)

  
  • MATH 452 - Topology II


    Description:
    An introduction to point-set and algebraic topology. Topics may include metric spaces, topological spaces, homotopy theory, and the fundamental group.

    Prerequisites:
    Prerequisite: MATH 451 with a grade of C or higher.

    Credits: (3)

  
  • MATH 453 - Topology III


    Description:
    An introduction to point-set and algebraic topology. Topics may include metric spaces, topological spaces, homotopy theory, and the fundamental group.

    Credits: (3)

  
  • MATH 455 - College Geometry II


    Description:
    Introduction to non-Euclidean geometry including history, deductive reasoning, and topics in hyperbolic and elliptical geometry.

    Prerequisites:
    Prerequisites: MATH 355 and MATH 260 with grades of C or higher.

    Credits: (3)

  
  • MATH 461 - Abstract Algebra I


    Description:
    Algebraic structures such as groupoids, groups, rings, and fields.

    Prerequisites:
    Prerequisite: MATH 365.

    Credits: (4)

  
  • MATH 462 - Abstract Algebra II


    Description:
    Algebraic structures such as groupoids, groups, rings, and fields.

    Prerequisites:
    Prerequisite: MATH 461 with a grade of a C or higher.

    Credits: (4)

  
  • MATH 471 - Advanced Analysis I


    Description:
    Further development of properties of calculus.

    Prerequisites:
    Prerequisite: MATH 371, with grade of C or higher.

    Credits: (4)

  
  • MATH 472 - Advanced Analysis II


    Description:
    Further development of properties of calculus, including topics in uniform convergence, differentiation, and integration.

    Prerequisites:
    Prerequisite: MATH 471 with a grade of C or higher.

    Credits: (4)

  
  • MATH 473 - Advanced Analysis III


    Description:
    Further development of properties of calculus.

    Prerequisites:
    Prerequisite: MATH 472 with a grade of C or higher.

    Credits: (3)

  
  • MATH 475 - Mathematical Modeling


    Description:
    An introduction to mathematical modeling using examples from physical, chemical,biological, economic, and social systems.  The use of software, critical thinking, and technical communication will be emphasized.

    Prerequisites:
    Prerequisites: MATH 265 and MATH 272 and MATH 376 and MATH 299S with a grade of C or higher, or with consent of the instructor.

    Credits: (4)

    Learner Outcomes, Activities and Assessments

    Learner Outcomes

     Activity

    Assessment

    Students will select mathematical models to best describe the process of mathematical modeling.

    Assignment or essay in which students select mathematical models to best represent steps in the modeling process, and justify their conclusions.

    Essay with rubric evaluated by faculty or graded assignment

    Students will predict modeling results.

    Students will analyze equations for the model, understanding how each part of the equations corresponds to the modeling scenario, and will estimate the effects of what is included and excluded from the model to predict results.

    Graded assignments.

    This material will appear in technical reports on one or more projects with a rubric evaluated by faculty.

    Students will assess mathematical models by obtaining numerical results.

    Students program software and use data to obtain modeling results.

    Results included in technical reports, and also included on graded assignments.

    Students will appraise the requirements of a problem to make modeling decisions, they will judge what to include and what to leave out of a model, and they will defend their choices based on results and constraints.  Students will evaluate which mathematical model performs best in a modeling situation

     Students write one or more technical reports on modeling projects, defending their choices, making predictions, and judging their results.

    Students may also make a presentation to the class about a chosen mathematical model.

    Technical reports on one or two projects, with a rubric evaluated by faculty

    Oral presentation evaluated by rubric



  
  • MATH 476 - Numerical Methods and Analysis I


    Description:
    This course offers an engaging introduction to numerical methods and analysis. Topics include error propagation in mathematical algorithms, data approximation, numerical differentiation and integration. Course work requires programming experience.

    Prerequisites:
    Prerequisites: MATH 260 and MATH 265 and MATH 299S with a grade of C or higher, or consent of instructor.

    Credits: (4)

    Learner Outcomes, Activities and Assessments

    Learner Outcomes

    Activity

    Assessment

    Students will describe, present and analyze numerical methods for a specific data set, and justify their conclusions.

    Students will prepare technical reports of mathematical/ scientific/ technical information in a clear and concise written communication.

    Report with rubric evaluated by classmates and faculty.  Rubric will measure their written communication, their process and their technical results.

    Students will construct and analyze computational approximations for different data sets using interpolation and other polynomial approximations.

    Students will code approximation techniques and provide a written report explaining techniques and results. Code will be documented and reviewed.

    Graded assignments.

    This topic will appear in technical reports on one or more projects, in class work, and homework with a rubric evaluated by faculty.  

    Students will estimate numerical derivatives and numerical integrals for a given dataset.

    Students will complete homework, quiz, and/or exam problems that require the application of numerical differentiation and integration.  

    Graded assignments.

    This topic will appear in technical reports on one or more projects with a rubric evaluated by faculty. 

    Students will predict and analyze the error propagation that results from mathematical algorithms.

    In classwork, homework and in the technical reports students will analyze how numerical methods compare to perfect computation, understanding how each part of the error corresponds to the numerical method, and estimate the effects. A written summary will be presented with each report submitted.

    Graded assignments.

    This topic will appear in technical reports on one or more projects with a rubric evaluated by faculty.

    Students will evaluate other numerical approximation methods.  

    Students will complete homework, quiz, and/or exam problems that require the application of Fourier Series, least squares approximation, and other numerical approximation methods.

    Graded assignment using a rubric.

    It should be noted that MATH 476 and 477 form a sequence of courses that are taken together. They share common learner outcomes since the content is distributed across the two courses and the order of coverage may vary.

  
  • MATH 477 - Numerical Methods and Analysis II


    Description:
    This course offers an engaging introduction to numerical methods and analysis. Topics include error propagation in mathematical algorithms, data approximation, numerical differentiation and integration. Course work requires programming experience. 

    Prerequisites:
    Prerequisite: MATH 476 with a grade of C or higher.

    Credits: (4)

    Learner Outcomes, Activities and Assessments

    Learner Outcomes

    Activity

    Assessment

    Students will describe, present and analyze numerical methods for a specific data set, and justify their conclusions.

    Students will prepare technical reports of mathematical/ scientific/ technical information in a clear and concise written communication.

    Report with rubric evaluated by classmates and faculty.  Rubric will measure their written communication, their process and their technical results.

    Students will construct and analyze computational approximations for different data sets using interpolation and other polynomial approximations.

    Students will code approximation techniques and provide a written report explaining techniques and results. Code will be documented and reviewed.

    Graded assignments.

    This topic will appear in technical reports on one or more projects, in class work, and homework with a rubric evaluated by faculty.  

    Students will estimate numerical derivatives and numerical integrals for a given dataset.

    Students will complete homework, quiz, and/or exam problems that require the application of numerical differentiation and integration.  

    Graded assignments.

    This topic will appear in technical reports on one or more projects with a rubric evaluated by faculty. 

    Students will predict and analyze the error propagation that results from mathematical algorithms.

    In classwork, homework and in the technical reports students will analyze how numerical methods compare to perfect computation, understanding how each part of the error corresponds to the numerical method, and estimate the effects. A written summary will be presented with each report submitted.

    Graded assignments.

    This topic will appear in technical reports on one or more projects with a rubric evaluated by faculty.

    Students will evaluate other numerical approximation methods.  

    Students will complete homework, quiz, and/or exam problems that require the application of Fourier Series, least squares approximation, and other numerical approximation methods.

    Graded assignment using a rubric.

    It should be noted that MATH 476 and 477 form a sequence of courses that are taken together. They share common learner outcomes since the content is distributed across the two courses and the order of coverage may vary.

  
  • MATH 486 - Mathematical Modeling for Middle-level Teaching


    Description:
    Teacher candidates will create and analyze mathematical models in relation to the CCSS-Math content domains using appropriate technology. They will design real-world math tasks that highlight the use of models for making sense of mathematics.

    Prerequisites:
    Prerequisites: MATH 406 and admission to the middle-level math major and application to the Teacher Certification Program.

    Credits: (4)

  
  • Learning Agreement Forms

    MATH 490 - Cooperative Education


    Description:
    An individualized, contracted field experience with business, industry, government, or social service agencies. This contractual arrangement involves a student learning plan, cooperating employer supervision, and faculty coordination. May be repeated for credit. Grade will either be S or U.

    Prerequisites:
    Prerequisite: prior approval required.

    Credits: (1-12)

  
  • MATH 491 - Workshop


    Description:
    The title of the workshop and the credit to be earned shall be determined at the time the workshop is approved. Designed to give an opportunity for individual and group study of problems in mathematics. May be repeated for credit.

    Credits: (1-6)

  
  • MATH 495 - Undergraduate Research


    Description:
    May be repeated up to 5 credits.

    Credits: (1)

  
  
  • MATH 498 - Special Topics


    Credits: (1-6)

  
  • MATH 499 - Seminar


    Credits: (1-5)

  
  • MATH 499A - Senior Seminar: Actuarial Science


    Description:
    Individualized projects using oral presentations and a written portfolio to show mastery in the program outcomes for actuarial science.

    Prerequisites:
    Co- or prerequisites: MATH 417B or MATH 419B.

    Credits: (2)

    Learner Outcomes, Activities and Assessments

    Learner Outcome

    Activity (optional)

    Assessment

    Communicate mathematical and statistical ideas clearly and to an appropriate audience.

    Assemble a senior portfolio that includes (in part) problem calculations, a lab report, and a project from earlier coursework, revising as necessary.

    A lab report and problem write-ups from earlier courses (possibly revised) will be assessed using a rubric that looks specifically at communication and writing.

    Recommend and argue for a course of action, in a situation requiring actuarial or statistical expertise.

    Small project that involves conducting some analysis, then writing a formal memo recommending a course of action, aimed at an appropriate audience.

    The memo will be assessed using a rubric that looks at communication to a specific audience and justifying recommendations.

    Prepare documentation/annotation for a spreadsheet or computer program.

    Annotate or document either a spreadsheet used in the small project above, or a computer program produced for earlier coursework.

    The spreadsheet or computer program will be assessed using a rubric that looks at appropriate documentation and whether the code/spreadsheet could be used or modified by other users.

    Communicate professionally in writing.

    See activities above.

    The elements of the portfolio will be assessed on grammar, mechanics, and clarity of style in addition to mathematical content.

    Communicate technical material orally.

    Students will make presentations to the class on a topic to be determined by the instructor.

    Presentations will be assessed using a rubric that measures whether technical material was communicated in a clear and compelling way.

     

     

     



  
  • MATH 499E - Senior Seminar: Secondary Mathematics


    Description:
    Individualized projects using oral presentations and written electronic portfolio to show mastery in all program outcomes for teaching secondary mathematics.

    Prerequisites:
    Prerequisite: MATH 325.

    Credits: (4)

  
  • MATH 499S - Senior Seminar


    Description:
    Individualized projects using oral presentations and written portfolio to show mastery in all program outcomes for mathematics.

    Credits: (2)


McNair Scholars (MCNA)

  
  • MCNA 301 - Introduction to the McNair Scholars Program


    Description:
    A seminar designed to introduce students to the McNair Program and guide them through the steps of identifying a faculty mentor and choosing a research topic. May be repeated up to  2 credits.

    Prerequisites:
    Prerequisite: admission into the McNair Scholar Program.

    Credits: (1)

  
  • MCNA 302 - Finding a Graduate School


    Description:
    A seminar designed to assist McNair Scholar students identify prospective graduate schools in their field of study. May be repeated up to  2 credits.

    Prerequisites:
    Prerequisite: MCNA 301 and admission into the McNair Scholars Program..

    Credits: (1)

  
  • MCNA 303 - Completing the Graduate School Application


    Description:
    A seminar designed to assist McNair Scholar students to complete their graduate school application materials. May be repeated up to 2 credits. Grade will either be S or U.

    Prerequisites:
    Prerequisite: MCNA 302 and admission into the McNair Scholars Program.

    Credits: (1)

  
  • MCNA 395 - Undergraduate Research Methods


    Description:
    An introduction to the steps of writing a research proposal.

    Prerequisites:
    Prerequisite: admission to the McNair Scholars Program.

    Credits: (2)

  
  • MCNA 401 - Conquering the Graduate Record Exam


    Description:
    This course is designed to prepare juniors and seniors who plan to pursue graduate programs that require GRE scores. Topics include test-taking strategies for the verbal, quantitative, and writing assessments. May be repeated up to 6 credits. Grade will be S or U.

    Prerequisites:
    Prerequisite: junior or senior status.

    Credits: (2)

    Learner Outcomes, Activities and Assessments

    Learner Outcome

    Activity (optional)

    Assessment

    Students will become familiar with the structure of the exam and the types of questions for each section. 

    Hands-on, supervised practice tests.

    Students will demonstrate their familiarity with the GRE exam structure and question types for each section by achieving improved scores on a sample GRE (post-test) taken at the end of the quarter as measured from baseline scores of a sample GRE (pre-test) taken at the start of the quarter. The students’ understanding will also be evident in their responses to quizzes and class discussions about the test structure and question types.

     

    Students will learn proven test-taking strategies for each type of questions.

    Lecture and discussion of the exam’s components.

    The students’ learning of test-taking strategies for each type of question on the GRE will be reflected in their ability to complete each section of a sample GRE within the time allotted for the actual test, and in improved scores on a sample GRE taken at the end of the quarter from scores achieved on a sample GRE taken at the beginning of the quarter.

     

    Students will learn the most common vocabulary words included in the exam. 

    Drills and exercises on the exam’s content.

    The students’ learning of the most common vocabulary will be evaluated on in class exercises and weekly quizzes on the vocabulary, and in improved scores on a sample GRE taken at the end of the quarter from scores achieved on a sample GRE taken at the beginning of the quarter.

     

    Students will review arithmetic, algebra and geometry.

     

    The students’ learning of arithmetic, algebra, and geometry will be evaluated on in class exercises and weekly quizzes on the topics, and in improved scores on a sample GRE taken at the end of the quarter from scores achieved on a sample GRE taken at the beginning of the quarter.

     

    Students will learn to write essays that meet the standards of the highest-scoring answers on the GRE exam.

     

    The students’ learning to write essays that meet the standards of the highest-scoring answers on the GRE exam will be evaluated on in class essay assignments and weekly essay quizzes, and in improved scores on a sample GRE taken at the end of the quarter from scores achieved on a sample GRE taken at the beginning of the quarter.

     




Mechanical Engineering Technology (MET)

  
  • MET 255 - Machining


    Description:
    Basic operations and technical information concerning common metal working machines and metal machining processes. Two hours lecture and four hours laboratory per week.

    Credits: (4)

  
  • MET 257 - Casting Processes


    Description:
    Theory and practice in green sand, shell core, permanent mold, no bake, and evaporation casting processes. Two hours lecture and four hours laboratory per week.

    Credits: (4)

  
  • MET 310 - Hydraulics/Pneumatics


    Description:
    A study of the application, controls, and uses of air and liquid for the transmission of power. Two hours lecture and four hours laboratory per week.

    Prerequisites:
    Prerequisite: IET 210 or permission.

    Credits: (4)

  
  • MET 314 - Applied Thermodynamics


    Description:
    Properties of pure substances, first and second laws of thermodynamics, enthalpy and entropy, perfect gases, Carnot cycle, steam cycles, refrigeration cycles, mixtures of perfect gases, chemical reactions, and combustion. Four hours lecture per week.

    Prerequisites:
    Prerequisites: MATH 173 and PHYS 112 or PHYS 182. Co-requisite: MET 314LAB.

    Credits: (4)

  
  • MET 314LAB - Applied Thermodynamics Laboratory


    Description:
    Practical application of thermodynamics systems teaching First and Second Law of Thermodynamics principles. Lab work includes usage of state-of-the-art instrumentation and data systems.

    Prerequisites:
    Corequisite: MET 314. Prerequisites: MATH 173 and either PHYS 182 or 112.

    Credits: (1)

  
  • MET 315 - Fluid Dynamics


    Description:
    Fluid statics, continuity, Bernoulli, and the general energy equation, laminar and turbulent flow, friction losses in pipes and ducts, pump performance and selection, compressible flow, and fluid measurements. Four hours lecture per week.

    Prerequisites:
    Co-requisite: MET 315LAB. Prerequisites: ETSC 311 and MET 314.

    Credits: (4)

  
  • MET 315LAB - Fluid Dynamics Laboratory


    Description:
    Practical application of fluid dynamics principles. Lab work includes fluid statics, continuity, Bernoulli, and the general energy equation, laminar and turbulent flow, friction losses in pipes and ducts, pump performance and selection, compressible flow, and fluid measurements.

    Prerequisites:
    Prerequisite: MET 314LAB.

    Credits: (1)

  
  • MET 316 - Applied Heat Transfer


    Description:
    Steady and unsteady state heat conduction, free convection, forced convection in tubes, forced convection over exterior surfaces, radiation heat transfer, change in phase heat transfer, heat exchangers, and heat pipes. Four hours lecture per week.

    Prerequisites:
    Co-requisite: MET 316LAB. Prerequisite: MET 315.

    Credits: (4)

  
  • MET 316LAB - Applied Heat Transfer Laboratory


    Description:
    Practical application of heat transfer principles. Lab work includes steady and unsteady state heat conduction, free convection, forced convection in tubes, forced convection over exterior surfaces, radiation heat transfer, change in phase heat transfer, heat exchangers, and heat pipes. Two hours laboratory per week.

    Prerequisites:
    Prerequisite: MET 315LAB.

    Credits: (1)

  
  • MET 320 - Fundamentals of Laser Technology


    Description:
    Overview of laser technology with emphasis on laser characteristics, safety, and applications. Four hours of lecture per week.

    Prerequisites:
    Prerequisite: PHYS 113.

    Credits: (4)

  
  • MET 327 - Technical Dynamics


    Description:
    Topics: rectilinear and curvilinear motion, rotational kinematics, work, energy and power, linear impulse and momentum, angular impulse and momentum, rigid body motion, relative motion, and vibrations.

    Prerequisites:
    Prerequisite: ETSC 311 with a grade of 2.3, C+, or higher. Co-requisite: MET 327LAB.

    Credits: (4)

  
  • MET 327LAB - Technical Dynamics Laboratory


    Description:
    Practical application of dynamical systems including usage of state-of-the-art instrumentation and data recording systems.

    Prerequisites:
    Prerequisite: IET 311. Co-requisite: MET 327.

    Credits: (1)

  
  • MET 345 - Lean Manufacturing


    Description:
    This course introduces the student to production principles of theory, organization for production, product engineering, and production system design. The principles of Lean Manufacturing will be an integral protion of course works. Students will gain hands-on experiences in hte application of these concepts through the production of an actual manufactured project. Two hours of lecture and four hours of laboratory per week.

    Prerequisites:
    Prerequisites: ETSC 160 and (ETSC 145 or MET 255, or permission of instructor).

    Credits: (4)

    Learner Outcomes, Activities and Assessments

    Learner Outcome

    Activity (optional)

    Assessment

    Demonstrate lean manufacturing principles in the production of manufactured parts.

     

    Assessed through lab work.

    Produce a value stream map.

     

    Assessed through homework, and laboratory experiments.

    Identify the elements of a 5S program and demonstrate implementation.

     

    Assessed through homework, and laboratory demonstrations.

    Identify Kaizen improvements that will affect production efficiently and suggest methods in which they can be implemented.

     

    Assessed through homework, and group kaizen activities.

    Implement SPC/Quality control practices.

     

    Assessed through written homework, lab, and examinations.

    Define Lean as a business system.

     

    Assessed through written homework and examinations.

    Design a manufacturing mistake-proofing procedure.

     

    Assessed through production application of Poka-yoke.

    Identify and suggest methods for reducing or eliminating the seven wastes in manufacturing.

     

    Assessed through laboratory applications, written and oral reports.

    Identify safety hazards in a given manufacturing environment and suggest methods for mitigation.

     

    Assessed through laboratory written reports.



  
  • MET 351 - Metallurgy/Materials and Processes


    Description:
    Ferrous and nonferrous metals and alloys; polymeric, ceramic, and cellular materials; use of phase diagrams, cooling curves, stress-strain diagrams, and metallography.

    Prerequisites:
    Prerequisites: CHEM 111 or CHEM 181.

    Credits: (4)

  
  • MET 355 - Advanced Machining and CNC Programming


    Description:
    Machining of metallic and non-metallic materials on automated equipment; mass production technology; programming and operation of CNC equipment.

    Prerequisites:
    Prerequisite: MET 255.

    Credits: (4)

  
  • MET 357 - Welding/Fabrication


    Description:
    Theory and practice in arc welding, oxyacetylene welding and cutting, MIG, TIG, and plastic welding. Two hours lecture and four hours laboratory per week.

    Credits: (4)

  
  • MET 382 - Plastics and Composites


    Description:
    Composition, characteristics, and classifications of plastics and composite materials incorporating industrial applications, processing, and fabrication.

    Prerequisites:
    Prerequisites: CHEM 111 and CHEM 111LAB, or CHEM 181 and CHEM 181LAB.

    Credits: (4)

  
  • MET 388 - Tool Design


    Description:
    Principles of tool design for material removal, work holding, press working, joining and inspection processes with emphasis on inventive ability and problem solving.

    Prerequisites:
    Prerequisites: IET 160 or IET 265, and MET 255.

    Credits: (4)

  
  • MET 411 - Energy Systems I


    Description:
    Power generation, energy reserves, fuels, reciprocating machines, internal combustion engines, rotating compressors, axial flow turbines, and gas turbine power. Four hours lecture per week.

    Prerequisites:
    Co-requisite: MET 411LAB. Prerequisite: MET 316.

    Credits: (4)

  
  • MET 411LAB - Energy Systems I Laboratory


    Description:
    Practical application of energy system principles. Lab work includes power generation, energy reserves, fuels, reciprocating machines, internal combustion engines, rotating compressors, axial flow turbines, and gas turbine power. Two hours laboratory per week.

    Prerequisites:
    Prerequisite: MET 316LAB.

    Credits: (1)

  
  • MET 418 - Mechanical Design I


    Description:
    Mechanical design principles including material and device responses to complex loading and optimization of energy system and mechanical drives.

    Prerequisites:
    Prerequisite: ETSC 312 with a grade of 2.3, C+, or higher.

    Credits: (4)

  
  • MET 418LAB - Mechanical Design I Laboratory


    Description:
    Practical application of mechanical design principles. Lab work includes design and or evaluation of modern mechanical devices, concepts and systems.

    Prerequisites:
    Co-requisite: MET 418. Prerequisite: ETSC 312 with a grade of 2.3, C+, or higher.

    Credits: (1)

  
  • MET 419 - Mechanical Design II


    Description:
    Fasteners, welds, machine frames, pressure vessels, hydraulic cylinders, electrical motors, and actuators. Four hours lecture and two hours laboratory per week.

    Prerequisites:
    Prerequisite: MET 418.

    Credits: (5)

  
  • MET 419LAB - Mechanical Design II Laboratory


    Description:
    Practical application of mechanical design principles. Lab work includes mechanical design principles for optimization of energy conversion systems via machine and power elements.

    Prerequisites:
    Prerequisite: MET 418LAB.

    Credits: (1)

  
  • MET 420 - Finite Element Analysis


    Description:
    Computerized modeling of structural, vibrational, and thermal design problems. Two hours lecture and four hours laboratory.

    Prerequisites:
    Prerequisites: IET 160 and MET 426.

    Credits: (4)

  
  • MET 423 - Computer-aided Design and Manufacturing


    Description:
    Integrates Computer-aided Design (CAD) and Computer-aided Manufacturing (CAM). Three hours lecture and two hours laboratory per week.

    Prerequisites:
    Prerequisites: ETSC 265 and MET 355.

    Credits: (4)

  
  • MET 426 - Applications in Strength of Materials


    Description:
    Topics support stress analysis and design. Laboratory activities include material strength, hardness, impact testing, strain gage technology, photoelasticity, ultrasonics, and eddy current.

    Prerequisites:
    Prerequisites: IET 312 and MET 351.

    Credits: (4)

  
  • MET 483 - Ceramics and Composites


    Description:
    Composition, characterization, and classification of ceramics and related composite materials incorporating industrial applications, processing, and fabrication.

    Prerequisites:
    Prerequisites: CHEM 111 and CHEM 111LAB, or CHEM 181 and CHEM 181LAB.

    Credits: (4)

  
  • MET 488 - Professional Certification Exam Preparation


    Description:
    A comprehensive review of professional mechanical engineering principles and technical skills in preparation for the national certification examination.

    Prerequisites:
    Prerequisite: MET 418.

    Credits: (2)

  
  • MET 495A - Senior Project I


    Description:
    The senior project is a capstone course that integrates all the major elements of the MET curriculum in a project related activity. The topic is chosen by the student in concurrence with the instructor and must include elements of planning, design, and analysis (Phase I), construction (Phase II), and test and evaluation (Phase III). Collaboration with representatives of industry, government agencies, or community institutions is encouraged. As an alternative, it will be possible to select a design study for the senior project for all three quarters, providing it is sufficiently comprehensive and approved by the MET advisor. May be repeated for credit. Course must be taken in sequence.

    Prerequisites:
    Prerequisite: MET 315.

    Credits: (3)

  
  • MET 495B - Senior Project II


    Description:
    The senior project is a capstone course that integrates all the major elements of the MET curriculum in a project related activity. The topic is chosen by the student in concurrence with the instructor and must include elements of planning, design, and analysis (Phase I), construction (Phase II), and test and evaluation (Phase III). Collaboration with representatives of industry, government agencies, or community institutions is encouraged. As an alternative, it will be possible to select a design study for the senior project for all three quarters, providing it is sufficiently comprehensive and approved by the MET advisor. May be repeated for credit. Course must be taken in sequence.

    Prerequisites:
    Prerequisite: MET 495A.

    Credits: (3)

  
  • MET 495C - Senior Project III


    Description:
    The senior project is a capstone course that integrates all the major elements of the MET curriculum in a project related activity. The topic is chosen by the student in concurrence with the instructor and must include elements of planning, design, and analysis (Phase I), construction (Phase II), and test and evaluation (Phase III). Collaboration with representatives of industry, government agencies, or community institutions is encouraged. As an alternative, it will be possible to select a design study for the senior project for all three quarters, providing it is sufficiently comprehensive and approved by the MET advisor. May be repeated for credit. Course must be taken in sequence.

    Prerequisites:
    Prerequisite: MET 495B.

    Credits: (3)


Military Science and Leadership (MSL)

  
  • MSL 101 - Foundations of Officership


    Description:
    Introduces students to issues and competencies that are central to a commissioned officer’s responsibilities. Establishes framework for understanding officership, leadership, Army values, and life skills, such as physical fitness and time management. Open to all students.

    Credits: (1)

  
  • MSL 102 - Basic Leadership


    Description:
    Establishes foundation of basic fundamentals such as problem solving, communications, briefings, effective writing, goal setting, techniques for improving listening and speaking skills, and an introduction to counseling. Open to all students.

    Credits: (2)

  
  • MSL 103 - Advanced Leadership


    Description:
    Studies in problem solving, communications, effective writing, goal setting, techniques of listening, advanced speaking skills and professional counseling. Open to all students.

    Credits: (2)

  
  • MSL 201 - Individual Leadership Studies


    Description:
    Students identify successful leadership characteristics through personal experience and observation of others during hands-on team building exercises. Explores persuasion techniques and the continuum of guidance to determine leadership styles. Open to all students.

    Credits: (2)

  
  • MSL 202 - Leadership and Teamwork


    Description:
    Examines how to build successful teams, various methods for influencing action, effective communication in setting and achieving goals, the importance of timing the decision, creativity in the problem solving process, and obtaining team buy-in through immediate feedback. Open to all students.

    Credits: (2)

  
  • MSL 211 - Land Navigation


    Description:
    Principles of land navigation and orienteering with practical field applications.

    Credits: (2)

  
  • MSL 212 - Leadership Laboratory


    Description:
    Practical experience in leadership and basic military skills. May be repeated for credit.

    Credits: (1)

 

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