Briar Cliff University Sioux City, IA 712-279-5200
Prospective StudentsBCU StudentsAlumni & FriendsAcademicsCampus InfoLibraryAthletics
Apply Now Visit Campus BCU Inspired
E-mail Web Advisor BCU Online Password Intranet Search Home
academicsdepartment of mathematics

Briar Cliff University
Mathematics

Surface

Student Handbook
2007-2008
 

TABLE OF CONTENTS


INTRODUCTION

This handbook is intended to acquaint you, a student planning to major or minor in mathematics, with the programs and policies of the Department of Mathematics and Computer Science. We recommend that you become familiar with its contents. Please feel welcome to consult any member of the Department for more information or clarification.
 

PROGRAM GOALS

The programs in mathematics have been designed with the following five goals in mind:

   1)  Students will know and be able to interrelate a core of basic mathematical concepts.
   2)  Students will be able to use a variety of problem solving strategies.
   3)  Students will be able to construct and communicate valid mathematical arguments.
   4)  Students will be able to apply mathematical skills to problems in other disciplines.
   5)  Students will be able to make use of technology as a problem solving tool.

The programs in mathematics prepare graduates to enter a variety of careers, including positions in business, computer programming, statistical research, actuarial science, systems analysis and design, and the teaching profession. The major program also provides a basic foundation of concepts and skills for graduate study in mathematics or related areas.
 

REQUIREMENTS FOR THE MATHEMATICS MAJOR

A total of 46 credit hours is required for a major in mathematics.
1.  Mathematics core sequence (25 hrs):  MATH 217, 218, 219, 225, 245, 344, 360, and 405
2.  Mathematics electives (9 hrs):  three courses chosen from MATH 348, 350, 361, 445, and 475
3.  Independent research (2 hrs)
4.  Support courses (10 hrs):  CSCI 201, 202; PHYS 231


COURSE SEQUENCE FOR THE MATHEMATICS MAJOR

The following is a suggested course sequence for completing a mathematics major. Credit hours are in parentheses. Since all mathematics term courses numbered above 218 are offered in alternate years, the years in which these courses are taken will vary for individuals.  Mathematics electives are in brackets.

  Fall Winter Spring
First year MATH 225 (3) MATH 217 (4)
CSCI 201 (3)
MATH 218 (4)
CSCI 202 (3)
Sophomore MATH 245 (2) MATH 344 (3) [MATH 350 (3)]
Junior MATH 219 (3)
MATH 405 (3)
PHYS 231 (4)
MATH 360 (3)
[MATH 445 (3)]
 
[MATH 361 (3)]
Senior [MATH 348 (3)] MATH IR (2)  

Back to TOC


STUDENT LEARNING OUTCOMES

The intended learning outcomes for students pursuing a Bachelor of Science degree in mathematics are indicated in the following sections: 

1)   Students will know and be able to interrelate a core of basic mathematical concepts.
    1.  Students understand the function concept, and they can apply it in a variety of contexts.
    2.  Students understand the calculus concepts of limit, derivative, and definite integral, and
            they can explain how the three are related.
    3.  Students are able to investigate and describe the behavior of functions defined by
            infinite series.  
    4.  Students know properties of vectors and vector operations in the plane and in space.
    5.  Students know properties of matrix algebra, and they are able to use matrices in a
            variety of contexts.
    6.  Students are familiar with some discrete mathematical concepts and related results.
    7.  Students know basic properties of probability and probability distributions and how these
            are applied to problems involving uncertainty.
    8.  Students know fundamental principles and procedures of data analysis.
    9.  Students are familiar with the fundamental algebraic structures of group, ring, and field
            as well as related results.
 
2)  Students will be able to use a variety of problem solving strategies.
    1.  Students are able to use algebraic techniques to solve problems involving equations,
            systems of equations, and inequalities.
    2.  Students are able to use functions as mathematical models and to investigate their
            behavior analytically, numerically, and graphically.
    3.  Students are able to solve problems using tools of differential and integral calculus.
    4.  Students are able to use vectors and matrix algebra to solve problems involving
            geometric concepts, physical systems, and data analysis.
    5.  Students are able to solve problems using tools of discrete mathematics including
            modular arithmetic, mathematical induction, counting principles, algorithms, and
            graph theory.
    6.  Students are able to use probabilistic reasoning and procedures of statistical analysis
            to solve problems involving data.

3)  Students will be able to construct and communicate valid mathematical arguments.
    1.  Students are able to distinguish between inductive and deductive reasoning.
    2.  Students are able to recognize and follow valid mathematical arguments.
    3.  Students are able to use different methods of proving conjectures, including direct
            argument, contradiction, contrapositive, and mathematical induction.
    4.  Students are able to verify falsity of conjectures by supplying counterexamples.
    5.  Students are able to effectively communicate mathematical reasoning, both orally
            and in writing.
 
4)  Students will be able to apply mathematical skills to problems in other disciplines.
    1.  Students are able to apply methods of calculus to problems in the physical, social, and
            life sciences.
    2.  Students are able to use vectors and matrix algebra to solve problems in the physical
            and social sciences.
    3.  Students are able to use discrete mathematical concepts in the contexts of algorithm
            development and computer programming.
    4.  Students are able to apply procedures of statistical analysis to problems in the physical 
           and social sciences.

 5)  Students will be able to make use of technology as a problem solving tool.
    1.  Students are proficient in the use of a graphics calculator.
    2.  Students are proficient in the use of a computer algebra system.
    3.  Students are experienced in the use of an electronic spreadsheet and statistical
            software.
    4.  Students are able to program computers in a high-level language.


GRADING RUBRICS 

The following general rubrics are used to assign letter grades for written work, oral presentations, and research papers.

A,  A-  Shows superior knowledge of the material
Selects appropriate mathematical tools and applies them correctly
Presents concise, complete, and readable solutions of problems
Shows superior awareness of interrelationships among concepts
Writes concise and coherent arguments observing rules of grammar    
B+, B, B-

Shows above average knowledge of the material
Selects appropriate mathematical tools and applies them correctly
Presents complete and readable solutions of problems
Shows acceptable level of awareness of interrelationships among concepts
Writes generally coherent arguments observing rules of grammar

C+, C

Shows adequate knowledge of the material
Selects appropriate mathematical tools and applies them with minor errors     
Presents acceptable solutions of problems with occasional errors or omissions
Has some awareness of interrelationships among concepts                    
Writes minimally acceptable arguments with occasional grammatical errors

D+, D

Shows minimally acceptable knowledge of the material
Selects appropriate mathematical tools and applies them incorrectly or 
    selects inappropriate tools
Presents minimally acceptable solutions of problems
Has little awareness of interrelationships among concepts                      
Shows little ability to write coherent arguments

F 

Has inadequate knowledge of material
Chooses inappropriate mathematical tools or fails to apply tools correctly       
Is unable to solve most problems
Is unaware of interrelationships among concepts
Is unable to write coherent arguments

Back to TOC
 

REQUIREMENTS FOR SECONDARY TEACHING ENDORSEMENT

For certification to teach mathematics with a grades 7-12 endorsement, a mathematics major at Briar Cliff must also complete a major in secondary education. The requirements in addition to the mathematics major are as follows:

1) Professional education instruction core     
    EDUC 210  Educational Foundations
    EDUC 250  Management and Instruction
    EDUC 270  Teaching Students with Disabilities   
    EDUC 318  Educational Psychology
    EDUC 330  Educational Measurement and Evaluation
    EDUC 415  Student Teaching in Secondary School
    EDUC 450  Multicultural Nonsexist Education
    EDUC IR's  Independent Research

2) Required supporting courses
     PSYC 110  Introductory Psychology
     PSYC 280  Developmental Psychology
     HIST 231 (or 232)  American History  or  PSCI 101  American Government
     SOCY 240 Race and Ethnic Relations
     A life science course
     EDSE 07IR

3) Required mathematics courses in addition to core sequence
     MATH 440  Special Methods of Teaching Secondary School Mathematics
     MATH 445  Concepts of Geometry


REQUIREMENTS FOR THE MATHEMATICS
MINOR

The general requirements for a minor in mathematics are:
     MATH 217  Calculus I
     MATH 218  Calculus II
     11 credit hours in MATH courses chosen from MATH 200 and courses numbered above 218


CERTIFICATION WITH MATHEMATICS MINOR

For certification to teach mathematics with a grades 7-12 endorsement and a minor in mathematics, the course requirements for the mathematics minor are:
     MATH 217  Calculus I
     MATH 218  Calculus II
     MATH 200  Elementary Statistics  or  MATH 360  Probability and Statistics I
     MATH 225  Discrete Mathematics
     MATH 245  Introduction to Mathematical Thinking
     MATH 344  Linear Algebra  or  MATH 405  Abstract Algebra
     MATH 440  Special Methods of Teaching Secondary School Mathematics
     MATH 445  Concepts of Geometry
     CSCI 201   Computer Programming I   

Back to TOC


CLASS SCHEDULE FOR ALTERNATE-YEAR COURSES (TENTATIVE)

  MATH 219
MATH 225
MATH 245
MATH 344
MATH 348
MATH 350
MATH 360
MATH 361
MATH 405
MATH 445
MATH IR
Fall 2009
Fall 2009
Fall 2008
Winter 2008
Fall 2008
Spring 2009
Winter 2007
Spring 2008
Winter 2007
Winter 2009
Winter 2007


DECLARING A MAJOR

Before declaring a major in mathematics, you must successfully complete the Calculus sequence, MATH 217 and 218. It is recommended that you have grades of B or better in these two courses and a minimum GPA of 2.50 overall.

After successfully completing the first two Calculus courses, obtain a Major Declaration Form from the Registrar's office and present it to the Department chairperson for signature. This constitutes notification of your intention to declare a major.   Your application will be reviewed by the chairperson, signed, and returned to you.

No student will be allowed to register for MATH IR courses in mathematics without having first declared a major in mathematics.

To remain a major in good standing, you must maintain a cumulative GPA of at least 2.50. You may not count more than one D in a MATH course to fulfill the requirements for the major or minor.


ADVISING PROCEDURES

A student declaring a major in mathematics will be assigned an advisor in the Department. Although you are assigned a faculty advisor, you are still ultimately responsible for seeing that you meet the University's as well as the Department's requirements for graduation. Your advisor's function is to help you plan your schedules and monitor your progress.

Approximately one week before advising and registration begins, you should make an appointment with your advisor.  Some classes tend to close early, and places may not be available if you wait too long. Before meeting with your advisor, you should review the course schedule for the coming term and make up a tentative schedule. If you find that you cannot make your advising appointment, please call or e-mail to cancel.


INTERNSHIPS

Internships in mathematics may be made available to eligible students. A student may also develop her or his own internship if an opportunity presents itself. All internships must be approved by registration time, but students desiring an internship should begin looking into it at least a term in advance. Junior or senior standing and a minimum cumulative GPA of 3.00 is required to be eligible for an internship.

Back to TOC


SUGGESTED
READING LIST FOR MATHEMATICS MAJORS

Mathematics majors are encouraged to supplement their required work with readings from the following list:

Boyer, Carl. A History of Mathematics. Wiley, 1968
Campbell, D. and Higgins, J. Mathematics: People, Problems, Results. Wadsworth, 1984
Davis, Philip. Descartes’ Dream. Harcourt Brace Jovanovich, 1986
Davis, Philip and Hersh, Reuben. The Mathematical Experience. Houghton Mifflin, 1981
Derbyshire, John. Prime Obsession. Joseph Henry Press, 2003
Devlin, Keith. Mathematics: The New Golden Age. Penguin Books, 1988
__________. The Millennium Problems. Basic Books, 2002
Dewdney, A.K. The Turing Omnibus. Computer Science Press, 1989
Driver, R.D., Why Math?. Springer-Verlag, 1984
Dunham, William. Journey Through Genius. Wiley, 1990
__________. The Mathematical Universe. Wiley, 1994
du Sautoy, Marcus. The Music of the Primes. Perennial, 2004
Eves, Howard. An Introduction to the History of Mathematics, 5th Edition. Saunders, 1983
Hardy, G.H. A Mathematician’s Apology. Cambridge University Press, 1967
Hofstadter, Douglas. Godel, Escher, Bach. Vintage Books, 1979
Kanigel, Robert. The Man Who Knew Infinity. Washington Square Press, 1991
Kline, Morris. Mathematical Thought from Ancient to Modern Times. Oxford University Press, 1972
Lakatos, Imre. Proofs and Refutations. Cambridge University Press, 1976
Penrose, Roger. The Emperor’s New Mind. Oxford University Press, 1989
Peterson, Ivars. Islands of Truth: A Mathematical Mystery Cruise. Freeman, 1990
__________. The Mathematical Tourist. Freeman, 1988
Singh, Simon. Fermat's Enigma. Walker, 1997
Solow, Daniel. How to Read and Do Proofs. Wiley, 1982
Steen, L. (ed.). Mathematics Today: Twelve Informal Essays. Springer-Verlag, 1978
__________. Mathematics Tomorrow. Springer-Verlag, 1981


ACADEMIC
INTEGRITY STATEMENT

The following is a copy of the Academic Integrity Statement taken from the Briar Cliff University catalog:

Briar Cliff University, as "a community within the Catholic and Franciscan tradition" strives to create an environment where the dignity of each person is recognized. Accordingly, integrity in relationships and work is supported and rewarded. Actions which are contrary to this spirit must be dealt with. Lack of integrity in academic work may appear in various forms, among which are cheating and plagiarism.

Cheating refers to the dissemination or use of unauthorized materials or information in completing an examination, paper, or other assignment. This includes collusion in completing assignments and copying from others.

Plagiarism is the submission, as a part of a course, work or papers (including oral presentations, projects, lab reports, experiments, etc.) in which a student represents the ideas, statements, or data of others as his/her own work. Another's work is represented as his/her own when it is copied or paraphrased without proper acknowledgment, such as footnotes, quotation marks, or direct statement.

The general policy of Briar Cliff University is that for a student's first offense, the instructor of the course will determine an appropriate penalty, with a maximum penalty of an "F" for the entire course. For a second offense, the course instructor and the Academic Dean will determine an appropriate penalty, up to and including immediate and permanent dismissal. For any offense after the second, the Academic Dean will determine an appropriate penalty, up to and including immediate and permanent dismissal from the college.

In all the alleged cases of cheating and plagiarism, the student shall be notified by the faculty member of the specific charges and circumstances in writing. A copy shall be sent to the Academic Dean. If the student wishes to deny the allegations, he/she must notify the department chairperson of the denial within ten days of notification. The chairperson will weigh the evidence presented by the student (in writing or at an oral hearing) and by the student's instructor, and make the final decision. (If the instructor is the chairperson of the department, the appeal shall be directed to the Academic Dean.) In the case of the third offense where the penalty is imposed by the Academic Dean, the appeal is to the President.

All material and information relative to any charge of cheating or plagiarism shall be kept by the Academic Dean in a special file during the period in which the student is enrolled at Briar Cliff , serving only as a statement of record if the student is charged with a subsequent act of plagiarism or cheating. In case of an appeal after the first offense, the file shall be destroyed if the student is found not guilty of the offense. If there are no further charges, the file will be destroyed at the time of the student's graduation from Briar Cliff. In order to support the Academic Integrity Statement, faculty members are expected to administer and monitor tests in a fair and consistent manner.

Back to TOC


DEPARTMENT
FACULTY

Dr. Craig Kalicki    Professor of Mathematics (1977)

  Office: HH-284
  Office phone: 279-5541
  Home address: 2831 Summit Street
Sioux City, IA  51104
  E-mail: craig.kalicki@briarcliff.edu
  Degrees: B.S. John Carroll University 1966
M.S. John Carroll University 1968
Ph.D. University of Notre Dame 1977
  Courses usually taught: Calculus, Linear Algebra, Discrete Mathematics, Ordinary Differential Equations, Intro to Mathematical Thinking, Abstract Algebra, Concepts of Geometry

Dr. Chuck Shaffer    Professor of Mathematics (1975)

  Office: HH-279
  Office phone: 279-5414
  Home address: 409 Driftwood Court
Sioux City, IA  51104
  E-mail: chuck.shaffer@briarcliff.edu
  Degrees: B.S. South Dakota School of Mines 1967
M.S. Montana State University 1969
Ph.D. Montana State University 1976
  Courses usually taught: Calculus, Linear Algebra, Discrete Mathematics, Numerical Analysis, Probability and Statistics

Ms. Beth Westpfahl    Assistant Professor of Mathematics (1991)
                                        Specialist, Student Support Services

  Office: HH-037
  Office phone: 279-5266
  Home address: 2020 Roundtable Road
Sergeant Bluff, IA  51054
  E-mail: beth.westpfahl@briarcliff.edu
  Degrees: B.A. University of Northern Iowa 1973
M.A. Wayne State College 1997
  Courses taught: Math for Liberal Arts, Math for Elementary Teachers, Developmental Math

Last updated:  11/27/07.  

Back to TOC