|
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 encourage
you to become
familiar with its contents.
Please feel welcome to
consult with any member of
the department for more
information or
clarification.
TABLE OF
CONTENTS
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 programs also
provide a basic
foundation of concepts
and skills for graduate
study in mathematics or
related areas.
REQUIREMENTS
FOR MATHEMATICS MAJORS
Students intending to
major in mathematics
should have successfully
completed four years of
high school mathematics
including some
trigonometry.
Students begin their
major program with
either MATH 217 Calculus
I or MATH 225 Discrete
Mathematics. Credit by
examination is available
for the first two
courses in the Calculus
sequence.
Bachelor of Science (BS)
in Mathematics
Requirements: A minimum
of 49 credit hours
distributed among three
areas.
1. Mathematics
core (28 hrs):
MATH 217, 218, 219, 225,
324, 325, 344, 407, IS
2. Mathematics
electives (2 or more hrs):
MATH 245, 350, 405, 475,
490
3. Support courses
(19 or more hrs): CSCI
201, 202, 345, CSCI
elective, PHYS 231, WRTG
225
Students choosing the BS
option are strongly
encouraged to choose a
second major in either
computer science or
business.
Bachelor of Arts (BA) in
Mathematics Education
Requirements: A minimum
of 39 credit hours
distributed among three
areas.
1. Mathematics
core (30 hrs):
MATH 217, 218, 225, 245,
305, 324, 344, 405, 440,
IS
2. Mathematics
electives (2 or more hrs):
MATH 219, 325, 350, 407,
475
3. Support courses
(7 hrs): CSCI
201, PHYS 231
To
be eligible for a 7-12
teaching endorsement,
students choosing the BA
option must also major
in secondary education.
Minor
Requirements:
MATH 217, 218, and 10
credit hours in
courses chosen from MATH
200 and MATH courses numbered
above 218. For a
mathematics minor with a
7-12 teaching
endorsement, course work
must include MATH 200 or
324, 225,
305, 344, 405, 440, and CSCI 201.
COURSE SEQUENCE
FOR MATHEMATICS
MAJORS
The following is a
suggested
course sequence for
completing the
requirements for a BS in mathematics.
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 among individuals.
Mathematics electives
are in brackets.
|
|
Fall |
Spring |
|
Freshman |
MATH 217 (4)
MATH 225 (3) |
MATH 218 (4) |
|
Sophomore |
CSCI 201 (3)
[MATH 245 (2)] |
MATH 344 (3)
CSCI 202 (3)
[MATH 350
(3)] |
|
Junior |
MATH 219 (3)
MATH 324 (3)
PHYS 231 (4)
[MATH 405
(3)] |
MATH 325 (3)
MATH IS (2)
CSCI 345 (3)
|
|
Senior |
MATH 407 (3)
CSCI
elective
WRTG 225 (3) |
|
The following is a
suggested
course sequence for
completing the
requirements for a BA in mathematics
education.
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 among individuals.
Mathematics electives
are in brackets.
|
|
Fall |
Spring |
|
Freshman |
MATH 217 (4)
MATH 225 (3) |
MATH 218 (4) |
|
Sophomore |
MATH 245 (2)
CSCI 201 (3) |
MATH 344 (3)
[MATH 325
(3)]
[MATH 350
(3)] |
|
Junior |
MATH 324 (3)
MATH 405 (3)
PHYS 231 (4)
[MATH 219 (3)] |
MATH IS (2)
|
|
Senior |
MATH 305 (3)
MATH 440 (3)
[MATH 407
(3)] |
|
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:
I. Students will
know and be able to
interrelate a core of
basic mathematical
concepts.
-
Students understand the function concept, and they
can apply it in a
variety of contexts.
-
Students understand the calculus concepts of limit,
derivative, and definite
integral, and they can
explain how the three
are related.
-
Students are able to investigate and describe the
behavior of functions
defined by infinite
series.
-
Students know properties of vectors and vector
operations in the plane
and in space.
-
Students know properties of matrix algebra, and they
are able to use matrices
in a variety of
contexts.
-
Students are familiar with some discrete
mathematical concepts
and related results.
-
Students know basic properties of probability and
probability
distributions and how
these are applied
to problems involving
uncertainty.
-
Students know
fundamental
principles and
procedures of data
analysis.
II. Students will
be able to use a variety
of problem solving
strategies.
-
Students are able to use algebraic techniques to
solve problems involving
equations, systems of
equations, and
inequalities.
-
Students are able to use functions as mathematical
models and to
investigate their behavior
analytically,
numerically, and
graphically.
-
Students are able to solve problems using tools of
differential and
integral calculus.
-
Students are able to use vectors and matrix algebra
to solve problems
involving geometric
concepts, physical
systems, and data
analysis.
-
Students are able to solve problems using tools of
discrete mathematics
including modular
arithmetic, mathematical
induction, counting
principles, algorithms,
and graph theory.
-
Students are able to use probabilistic reasoning and
procedures of
statistical analysis to solve
problems involving data.
III. Students
will be able to
construct and
communicate valid
mathematical arguments.
-
Students are able to distinguish between inductive
and deductive reasoning.
-
Students are able to recognize and follow valid
mathematical arguments.
-
Students are able to use different methods of
proving conjectures,
including direct argument,
contradiction, contrapositive, and
mathematical induction.
-
Students are able to verify falsity of conjectures
by supplying
counterexamples.
-
Students are able to effectively communicate
mathematical reasoning,
both orally and in
writing.
IV. Students will
be able to apply
mathematical skills to
problems in other
disciplines.
-
Students are able to apply methods of calculus to
problems in the
physical, social, and life
sciences.
-
Students are
able to use vectors
and matrix algebra
to solve problems in
the physical and
social sciences.
-
Students are able to use discrete mathematical
concepts in the contexts
of algorithm development
and computer
programming.
-
Students are able to apply procedures of statistical
analysis to problems in
the physical and social
sciences.
V. Students will
be able to make use of
technology as a problem
solving tool.
-
Students are
proficient in the
use of a graphing
calculator.
-
Students are
proficient in the
use of a computer
algebra system.
-
Students are experienced in the use of an electronic
spreadsheet and
statistical software.
-
Students are able to
use mathematical
resources on the
internet.
-
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, 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
For certification to
teach mathematics with a
grades 7-12 endorsement,
a mathematics major at
Briar Cliff must
complete the BA program
as well as 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 Exceptional Learners
EDUC 318 Educational Psychology
EDUC 330 Educational Measurement and Evaluation
EDUC 415 Student Teaching in the Secondary School
EDUC 450 Human Relations
EDUC IS Intensive Study courses (6)
2.
Required supporting
courses
PSYC 110 Introductory Psychology
PSYC 280 Developmental Psychology
HIST 231 (or 232) History of the United
States or PSCI 101 American
Government
SOCY 240 Racial, Ethnic, and Gender Inequality
or PSCI 224 Geography and World
Cultures
A life science course
EDSE 07IS Content Area Reading
REQUIREMENTS FOR
MATHEMATICS
MINOR
The general requirements
for a minor in
mathematics are:
MATH 217
Calculus I
MATH 218
Calculus II
10 credit hours in
courses chosen from
MATH 200 and MATH courses
numbered above 218
Back to TOC
CLASS SCHEDULE
FOR ALTERNATE-YEAR
COURSES
|
|
MATH 219
MATH 225
MATH 245
MATH 305
MATH 324
MATH 325
MATH 344
MATH 350
MATH 405
MATH 407
MATH IS |
Fall 2011
Fall 2011
Fall 2012
Fall 2012
Fall 2011
Spring 2012
Spring 2013
Spring 2013
Fall 2011
Fall 2012
Spring 2012 |
DECLARING
A MAJOR
Before declaring a major
in mathematics, you must
successfully complete
the Calculus sequence,
MATH 217 and 218, or
transfer in these
courses. It is
recommended that you
have grades of B or
better in both
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 IS 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
After
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 to monitor
your progress towards
the degree. If you
choose the BA program,
you will have a
co-advisor in the
Education Department.
Approximately one week
before advising and
registration begins, you
should make an
appointment with your
advisor. Some
classes tend to close
early so places may
not be available if you
wait too long. Before
meeting with your
advisor, you should
review the course
schedule for the coming
semester 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
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 semester 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
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
_____________.
Symmetry: A Journey into
the Patterns of Nature.
Harper, 2008
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
Mlodinow, Leonard. The
Drunkard's Walk: How
Randomness Rules Our
Lives. Vintage
Books, 2008
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
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)
Department Chairperson
|
Office: |
HH-284 |
|
Office
phone: |
279-5541 |
|
E-mail: |
craig.kalicki@briarcliff.edu |
|
Degrees: |
BS John
Carroll
University
1966
MS John
Carroll
University
1968
PhD
University
of Notre
Dame 1977 |
|
Courses
usually
taught: |
Calculus,
Linear
Algebra,
Mathematical
Reasoning,
Abstract
Algebra,
Geometry for
Teachers |
Dr.
Chuck Shaffer
Professor of Mathematics
(1975)
|
Office: |
HH-279 |
|
Office
phone: |
279-5414 |
|
E-mail: |
chuck.shaffer@briarcliff.edu |
|
Degrees: |
B.S. South
Dakota
School of
Mines 1967
MS Montana
State
University
1969
PhD
Montana
State
University
1976 |
|
Courses
usually
taught: |
Calculus,
Discrete
Math,
Numerical
Analysis,
Statistical
Methods,
Mathematical
Statistics |
Ms.
Beth Westpfahl
Assistant Professor of
Mathematics (1991)
Specialist, Student
Support Services
|
Office: |
HH-037 |
|
Office
phone: |
279-5266 |
|
E-mail: |
beth.westpfahl@briarcliff.edu |
|
Degrees: |
BA
University
of Northern
Iowa 1973
MA Wayne
State
College 1997 |
|
Courses
taught: |
Math for
Liberal
Arts, Math
for
Elementary
Teachers,
Special
Methods for
Teaching
Secondary
Math, Developmental
Math |
Last updated:
06/14/2011.
Back to TOC
|