THE
TEACHING
OF
MATHEMATICS
Gloria G. Salandanan, Ph. D.
Mathematics has been considered
a necessary part of general education
and has become a required subject in
the curriculum across instructional
levels.
The Teaching of Mathematics:
INTRODUCTION
Mathematics contributes to more
specialized education of various
professionals like scientists,
accountants, statisticians, engineers
and other professions which rely
heavily on accurate measurements
and quantification in order to
understand better the studies they
are conducting.
NATURE OF MATHEMATICS
Math is definite, logical, and objective. The
rules for determining the truth or falsity of
a statement are accepted by all. If there
are disagreements, it can readily be tested.
It is in contrast with the subjective
characteristics of other subjects like
literature, social studies and the arts.
NATURE OF MATHEMATICS
Math deals with solving problems.
Such problems are similar to all other
problems everyone is confronted with.
It consists of:
a) defining the problem,
b) entertaining a tentative guess
as the solution,
c) testing the guess, and
d) arriving at a solution.
SCOPE – GRADES 1 and 2
Mathematics in these grades include the study of
whole numbers, addition and subtraction, basic
facts of multiplication and division, basics of
geometry, fractions problems based on real life
activities.
SCOPE – GRADES 3 and 4
Grade 3 and 4 deals with the study of whole
numbers, the four fundamental operations,
fractions and decimals including money, angles,
plane figures, measurement and graphs.
SCOPE – GRADES 5 and 6
In Grade 5 and 6 the child is expected to
have mastered the four fundamental operations of
whole numbers, performs skills in decimals and
fractions, conceptualize the meaning of ratio and
proportion, percent, integers, simple probability,
polygons, spatial figures, measurement and
graphs. A simple concept in Algebra is also
introduced to be articulated in the high school.
SCOPE – SECONDARY LEVELS
First year is elementary algebra
Second year is intermediate algebra
Third year is geometry
Fourth year is still the existing integrated
(algebra, geometry, statistics and a unit
of trigonometry) spiral mathematics
STRATEGIES BASED ON
OBJECTIVES
1. Knowledge and Skill Goals
- Knowledge and basic skills compose a large
part of learning in mathematics. Students may
be required to memorize facts or to become
proficient in using algorithms.
2. Problem Solving Goals
- Problem solving is regarded by mathematics
educators and specialists as the basic
mathematical activity. Hence, considerations
should be given to the teaching of problem
solving skills.
STRATEGIES BASED ON
OBJECTIVES
2. Understanding Goals
- The distinguishing characteristics of
understanding goals is that
“understanding must be applied,
derived or used to deduce a
consequence.”
STRATEGIES BASED ON
OBJECTIVES
2. Understanding Goals
Some strategies used in understanding are:
a) Authority Teaching
b) Interaction and discussions
c) Discovery
d) Laboratory
e) Teacher-controlled presentations
STRATEGIES IN
TEACHING MATHEMATICS
1. PROBLEM SOLVING
a) Make sure students understand the problem
b) Ask the following questions:
Do the students understand the meaning
of the terms in the problem?
Do they take into consideration all the
relevant information?
Can they indicate what the problem is
asking for?
Can they state the problem in their own
words?
STRATEGIES IN
TEACHING MATHEMATICS
1. PROBLEM SOLVING
c) Helps the students gather relevant thought
material to assist in creating a plan
d) Provide students with an atmosphere
conductive to solving problems
e) Once students have obtained a solution,
encourage them to reflect on the problem and
how they arrived at the solution.
f) Encourage them to present alternate ways of
solving the problem
1. Constructivism
– This is based on Bruner’s theoretical
framework that learning is an active
process in which learners construct new
ideas or concepts based upon their
knowledge.
2. Cognitive Theory
– The cognitive theory encourages students’
creativity with the implementation of
technology such as computers which are
used to create practice situations.
THEORETICAL BASIS OF
PROBLEM-SOLVING STRATEGY
3. Guided Discovery Learning
– Tool engages students in a series of higher
order thinking skills to solve problems.
4. Meta cognition Theory
- The field of meta cognition process hold
that students should develop and explore the
problem, extend solutions, process and
develop self-reflection. Problem solving must
challenge student to think.
THEORETICAL BASIS OF
PROBLEM - SOLVING STRATEGY
5. Cooperative Learning
- The purpose of cooperative learning groups
is to make each member a stronger
individual in his/her own right. Individual
accountability is the key to ensuring that all
group members are strengthened by
learning cooperatively.
THEORETICAL BASIS OF
PROBLEM - SOLVING STRATEGY
This strategy has the following steps:
1. Restate the problems
2. Select appropriate notation.
3. Prepare a drawing, figure or graph.
4. Identify the wanted, given and needed
information.
5. Determine the operations to be used.
6. Estimate the answer.
7. Solve the problem.
8.Check the solution.
STEPS OF THE PROBLEM
SOLVING STRATEGY
1. Obtain the answer by trial and error
2. Use an aid, model or sketch
3. Search for a pattern
4. Elimination strategy
OTHER TECHNIQUES IN
PROBLEM - SOLVING
STRATEGIES IN
TEACHING MATHEMATICS
1. PROBLEM SOLVING
2. CONCEPT ATTAINTMENT STRATEGY
- This strategy allows the students to discover the
essential attributes of a concept.
- STEPS:
a. Select a concept and identify its essential
attributes.
b. Present examples and non-examples of the
concepts.
c. Let students identify or define the concept
based on its essential attributes.
d. Ask students to generate additional examples.
EVALUATING
MATHEMATICS LEARNING
Evaluation procedures may be
classified into following:
1. Testing Procedures
2. Non-testing Procedures
EVALUATING
MATHEMATICS LEARNING
1. Testing Procedures
a. Individual and group tests
b. Informal and standardized tests
c. Oral, essay, and objective tests
d. Speed, power, and mastery tests
e. Verbal, nonverbal and performance
tests
f. Readiness and diagnostic tests
EVALUATING
MATHEMATICS LEARNING
2. Non-testing Procedures
a. Interview such as teacher-pupil
interview
b. Questionnaires
c. Anecdotal Records
d. Socio-metric Devices
e. Ranking and Rating Procedures
EVALUATING
STUDENT PERFORMANCE
1. work on assignments outside
the class
2. class participation
3. attitudes and effort
4. extra credit work

2b

  • 1.
  • 2.
    Mathematics has beenconsidered a necessary part of general education and has become a required subject in the curriculum across instructional levels. The Teaching of Mathematics: INTRODUCTION
  • 3.
    Mathematics contributes tomore specialized education of various professionals like scientists, accountants, statisticians, engineers and other professions which rely heavily on accurate measurements and quantification in order to understand better the studies they are conducting.
  • 4.
    NATURE OF MATHEMATICS Mathis definite, logical, and objective. The rules for determining the truth or falsity of a statement are accepted by all. If there are disagreements, it can readily be tested. It is in contrast with the subjective characteristics of other subjects like literature, social studies and the arts.
  • 5.
    NATURE OF MATHEMATICS Mathdeals with solving problems. Such problems are similar to all other problems everyone is confronted with. It consists of: a) defining the problem, b) entertaining a tentative guess as the solution, c) testing the guess, and d) arriving at a solution.
  • 6.
    SCOPE – GRADES1 and 2 Mathematics in these grades include the study of whole numbers, addition and subtraction, basic facts of multiplication and division, basics of geometry, fractions problems based on real life activities. SCOPE – GRADES 3 and 4 Grade 3 and 4 deals with the study of whole numbers, the four fundamental operations, fractions and decimals including money, angles, plane figures, measurement and graphs.
  • 7.
    SCOPE – GRADES5 and 6 In Grade 5 and 6 the child is expected to have mastered the four fundamental operations of whole numbers, performs skills in decimals and fractions, conceptualize the meaning of ratio and proportion, percent, integers, simple probability, polygons, spatial figures, measurement and graphs. A simple concept in Algebra is also introduced to be articulated in the high school.
  • 8.
    SCOPE – SECONDARYLEVELS First year is elementary algebra Second year is intermediate algebra Third year is geometry Fourth year is still the existing integrated (algebra, geometry, statistics and a unit of trigonometry) spiral mathematics
  • 9.
    STRATEGIES BASED ON OBJECTIVES 1.Knowledge and Skill Goals - Knowledge and basic skills compose a large part of learning in mathematics. Students may be required to memorize facts or to become proficient in using algorithms. 2. Problem Solving Goals - Problem solving is regarded by mathematics educators and specialists as the basic mathematical activity. Hence, considerations should be given to the teaching of problem solving skills.
  • 10.
    STRATEGIES BASED ON OBJECTIVES 2.Understanding Goals - The distinguishing characteristics of understanding goals is that “understanding must be applied, derived or used to deduce a consequence.”
  • 11.
    STRATEGIES BASED ON OBJECTIVES 2.Understanding Goals Some strategies used in understanding are: a) Authority Teaching b) Interaction and discussions c) Discovery d) Laboratory e) Teacher-controlled presentations
  • 12.
    STRATEGIES IN TEACHING MATHEMATICS 1.PROBLEM SOLVING a) Make sure students understand the problem b) Ask the following questions: Do the students understand the meaning of the terms in the problem? Do they take into consideration all the relevant information? Can they indicate what the problem is asking for? Can they state the problem in their own words?
  • 13.
    STRATEGIES IN TEACHING MATHEMATICS 1.PROBLEM SOLVING c) Helps the students gather relevant thought material to assist in creating a plan d) Provide students with an atmosphere conductive to solving problems e) Once students have obtained a solution, encourage them to reflect on the problem and how they arrived at the solution. f) Encourage them to present alternate ways of solving the problem
  • 14.
    1. Constructivism – Thisis based on Bruner’s theoretical framework that learning is an active process in which learners construct new ideas or concepts based upon their knowledge. 2. Cognitive Theory – The cognitive theory encourages students’ creativity with the implementation of technology such as computers which are used to create practice situations. THEORETICAL BASIS OF PROBLEM-SOLVING STRATEGY
  • 15.
    3. Guided DiscoveryLearning – Tool engages students in a series of higher order thinking skills to solve problems. 4. Meta cognition Theory - The field of meta cognition process hold that students should develop and explore the problem, extend solutions, process and develop self-reflection. Problem solving must challenge student to think. THEORETICAL BASIS OF PROBLEM - SOLVING STRATEGY
  • 16.
    5. Cooperative Learning -The purpose of cooperative learning groups is to make each member a stronger individual in his/her own right. Individual accountability is the key to ensuring that all group members are strengthened by learning cooperatively. THEORETICAL BASIS OF PROBLEM - SOLVING STRATEGY
  • 17.
    This strategy hasthe following steps: 1. Restate the problems 2. Select appropriate notation. 3. Prepare a drawing, figure or graph. 4. Identify the wanted, given and needed information. 5. Determine the operations to be used. 6. Estimate the answer. 7. Solve the problem. 8.Check the solution. STEPS OF THE PROBLEM SOLVING STRATEGY
  • 18.
    1. Obtain theanswer by trial and error 2. Use an aid, model or sketch 3. Search for a pattern 4. Elimination strategy OTHER TECHNIQUES IN PROBLEM - SOLVING
  • 19.
    STRATEGIES IN TEACHING MATHEMATICS 1.PROBLEM SOLVING 2. CONCEPT ATTAINTMENT STRATEGY - This strategy allows the students to discover the essential attributes of a concept. - STEPS: a. Select a concept and identify its essential attributes. b. Present examples and non-examples of the concepts. c. Let students identify or define the concept based on its essential attributes. d. Ask students to generate additional examples.
  • 20.
    EVALUATING MATHEMATICS LEARNING Evaluation proceduresmay be classified into following: 1. Testing Procedures 2. Non-testing Procedures
  • 21.
    EVALUATING MATHEMATICS LEARNING 1. TestingProcedures a. Individual and group tests b. Informal and standardized tests c. Oral, essay, and objective tests d. Speed, power, and mastery tests e. Verbal, nonverbal and performance tests f. Readiness and diagnostic tests
  • 22.
    EVALUATING MATHEMATICS LEARNING 2. Non-testingProcedures a. Interview such as teacher-pupil interview b. Questionnaires c. Anecdotal Records d. Socio-metric Devices e. Ranking and Rating Procedures
  • 23.
    EVALUATING STUDENT PERFORMANCE 1. workon assignments outside the class 2. class participation 3. attitudes and effort 4. extra credit work