Teaching Mathematics in the International Baccalaureate Diploma Program—Are You Prepared?
by Margaret Langfield
Many preservice mathematics teachers in Canada and the United States do not know all the mathematics needed to teach in the International Baccalaureate (IB) Diploma Program. All four mathematics options (mathematics higher level, advanced mathematics standard level, mathematical studies, and mathematical methods) in the program require a broad range of mathematical topics—some core and some teacher chosen. Common to all are number, algebra, functions, geometry, trigonometry, probability, and statistics.
The two syllabi chosen by the majority of students include such other topics as sets, logic, two-dimensional vector geometry, financial mathematics, and some calculus. An IB teacher must have a ready knowledge of these topics; in addition, for the optional topics, the teacher must know more calculus, some matrices and graph theory, and statistical methods. The two upper levels of the IB program (mathematics higher level and advanced mathematics standard level) require three-dimensional vector geometry, complex numbers, analysis, and yet more calculus, probability, and statistics. Three of the syllabi require that students use a graphing calculator. From a mathematical standpoint, most prospective secondary teachers simply have not had this much mathematics in the undergraduate programs required for teacher certification.
In addition to mathematical knowledge, prospective teachers of IB mathematics need to "be able to represent mathematics as a coherent and connected enterprise" (NCTM 2000, p. 17). The external-assessment component of an IB program poses creative questions requiring both teachers and students to see connections and draw on their knowledge in many areas; the IB mathematics classroom affords many opportunities for this type of assessment to be practiced. Too many undergraduates regard mathematics as a static subject with a set of algorithms to be applied unthinkingly to known problems. The intent of the IB program is that "students must learn mathematics with understanding, actively building new knowledge from experience and prior knowledge" (NCTM 2000, p. 20). Prospective IB teachers must be capable of developing and fostering classrooms where students can use their imagination, skills, and knowledge to explore new situations with confidence and with the expectation of success. From their mathematical experiences, students should understand the importance of rigor and communication, and they should appreciate the power of mathematics and mathematical reasoning. Few teacher-preparation programs educate prospective teachers in this manner (NCTM 2000, p.17).
For the internal-assessment component of the IB mathematics program, which is either a project or portfolio-type assignments, a student must spend time on extended problems. The students have opportunities to explore new topics, apply knowledge, make conjectures, construct mathematical models, pursue particular interests, use technology, and write both well and meaningfully about mathematics. An IB teacher must have had experience in these types of things, as well as experience in using criterion-referenced assessment to evaluate these activities.
Typical prospective IB teachers have energy, stamina, perseverance, the courage to move away from standard textbooks, and the ability to draw on many resources while constructing the needed activities for their IB students. In their undergraduate mathematics preparation for teaching, they should have developed confidence in a coherent, unified body of knowledge and should be able to share this with students. Until teacher-preparation programs change, few first-year teachers are prepared for IB teaching. They need more mathematics and the training offered by the International Baccalaureate Organisation.
References
International Baccalaureate Organisation. Subject Guides for Mathematical Methods Standard Level, Mathematical Studies Standard Level, Mathematics Higher Level, Further Mathematics Standard Level. Available at www.ibo.org.
National Council of Teachers of Mathematics (NCTM). Principles and Standards for School Mathematics. Reston, Va.: NCTM, 2000.
International Baccalaureate Organisation. Subject Guides for Mathematical Methods Standard Level, Mathematical Studies Standard Level, Mathematics Higher Level, Further Mathematics Standard Level. Available at www.ibo.org.
National Council of Teachers of Mathematics (NCTM). Principles and Standards for School Mathematics. Reston, Va.: NCTM, 2000.
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Diploma Programme curriculum
ReplyDeleteGroup 5: Mathematics and computer science
It is a requirement of the programme that students study at least one course in mathematics; computer science is an elective.
Mathematics
Four courses in mathematics are available:
mathematical studies standard level
mathematics SL
mathematics higher level
further mathematics standard level which will become a higher level course in 2012 with first examinations in 2014.
These four courses serve to accommodate the range of needs, interests and abilities of students, and to fulfill the requirements of various university and career aspirations.
The aims of these courses are to enable students to:
develop mathematical knowledge, concepts and principles
develop logical, critical and creative thinking
employ and refine their powers of abstraction and generalization.
Students are also encouraged to appreciate the international dimensions of mathematics and the multiplicity of its cultural and historical perspectives.
Computer science
Computer science higher level or standard level, if chosen, must be studied in addition to a mathematics subject.
The aims of computer science are to develop an understanding of:
the range and organization of computer systems
the use of computers in a variety of disciplines, applications and contexts.