Mathematics 586-116
The immediate objectives below come from the Quebec government
course objectives online in this
pdf file They provide a skills and concept checklist for the
pre-reform 116 course. For the sake of clarity and precision, compare and
contrast with the new content objectives in the current education reform. There
should be an overlap.
My comments and reflections on the old mathematics 116 are
preceded by (W:) in order to distinguish between them from the MEQ objectives
| Intermediate Objectives:
Objectives that specify the scope of a terminal objective,
intermediate objectives might also be described as "reference.
objectives." They are not intended as a series of steps to be
completed one after the other. Such a process would give a very fragmented
picture of teaching and learning. Rather, intermediate objectives are:
-
Aspects of a theme that have been chosen for the
program.
-
Clarifications to ensure that the terminal objective
is clearly understood
-
Guidelines that indicate the relationship between the
terminal objective and student learning
-
Prerequisites for attaining a terminal objective
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There are no intermediate objectives for the first objective 1 as
support for it is embedded as part of the other objectives. The following
quote says clearly how. Here reading the intermediate objectives, I have
clarified some and given my view on others.
MEQ Objective 1:
To help students acquire
skills prerequisite to the study of algebra
W: That implies Secondary I is or could be the
year of fractions with some effort to introduce algebraic thinking
skills. See the lesson plans Secondary
I - fractions & allied concepts (decimals, percentages).
Partical coverage of Solving
Linear Equations with & without Stick Diagrams is recommended in
those plans.
Mathematics 116 takes a two-step approach to preparing students for the
study of algebra: the first step involves facilitating the transition to
algebra by ensuring that the necessary arithmetic skills have been
mastered; the second step enables students to grasp certain differences
between arithmetic and algebra.
In step one the primary emphasis is on expanding the students'
understanding of the equal sign. To this end, certain aspects of Terminal
Objectives 2.1 and 2.2 not only give students the opportunity to apply the
rules for writing the order of operations, but also help them realize that
the equal sign does not mean "do this," or "do that,"
but rather "the expression on the right has the same value as the
expression on the left and vice versa." Equalities can be created
through concrete application of the commutative, associative and
distributive properties, which are used extensively in algebra.
Step two comes into play most particularly in the study of numbers
(Terminal Objective 2.1). Students can learn how to use algebraic language
by working with all the properties and rules that can be easily
generalized. For example, after discovering the rule for converting one
number into another, students learn to express the rule by moving
gradually from descriptive language to symbolic language, which takes into
account the basic rules of algebraic language. The goal is to have
students realize that if one relationship can be generalized by a rule,
this rule can be applied to other numbers. Terminal Objective 3.5 provides
opportunities for carrying out this algebraic activity in a geometric
context.
The objectives that come under this general objective are integrated
with the terminal (w: other) objectives on numbers and measurement.
They are marked with an asterisk. |
Objective 2:
Check and develop number and operation sense
MEQ Develop number sense by working with the natural numbers,
subsequently enriching ... experience through exposure to fractions
and decimals.
Well-developed number sense makes it possible to anticipate
the results of numerical operations, determine the degree of accuracy required
in a given situation, and judge the appropriateness of a calculation done
mechanically by means of an algorithm or a calculator.
Intermediate Objective 2.1:
operations with natural numbers - Understand and
apply the properties of the operations and of equality.
- To associate the power of a given natural
number with its exponential notation and vice versa.
W: That may mean recognize a4 is shorthand
for the four factor product a*a*a*a in which all the factors have the same
value a where a is a number or an expression.
- Write a natural number as a product of prime factors.
W: The first intermediate objective is used here in this
prime factorization or decomposition of natural numbers. Add the
ability to calculate the least common multiple and greatest common divisor
of a pair of whole numbers. Add to this the ability to use a
calculator to rapidly obtain the prime factorization of a number. Include
here mastery of rules for recognizing multiples of 2, 3, 5 and 10, if not 9
and 11. See the site area Number
Theory.for how (and more) if you like
- Calculate the value of a chain of operations on natural numbers in
accordance with the order of operations. The chain may include one or two
sets of parentheses. (w: Evaluate simple to more complicated
expressions in a repeatable and reproducible manner.
-
* To express a given natural number, using one or more
operations and following the rules of writing
associated with the order of operations.
w: Not sure what this means.
- * To generate equivalent numerical
expressions, each containing one or more arithmetic operations, using, for
example, the properties of the operations and of the equivalence relation.
W: Generate and use equivalent numerical
expressions in evaluation of expressions, using properties of Natural
Numbers.
W: The area view of distributive law might help here.
-
To translate a chain of operations on natural numbers into a
verbal problem.
W: Does mean translate the verbal expression "double the
number and add three" into an algebraic, symbolic or literal expression
of the form 2n+3
-
* To explain in their own words the rule relating a number
and its rank in a sequence.
W: Translate 3n+5 into a verbal expression
-
* To express in symbolic language the rule relating a number
and its rank in a sequence.
W: for instance the expressions 2n, 2n+1 and 3n generate sequences of even,
odd and multiples of 3
-
* To use the rule relating a number and its rank in a
sequence to find either the number occupying a certain rank in the sequence
or the rank of a number belonging to the sequence.
W: for instance the expressions 2n,
2n+1 and 3n generate sequences of even, odd and multiples of 3. Answer the
questions what is the fifth odd number. Is 13 the 4th, 5th or 6th odd
number?
Intermediate Objective 2.2
Operations on integers
Develop or verify the following abilities
- compare or order integers.
- perform the following operations on integers: addition, subtraction,
multiplication, division and exponentiation (exponents should be limited to
the positive integers). Use law of signs.
- Calculate the value of an expression involving a chain of operations
performed on integers, following the order of operations. The chain may
include one or two sets of parentheses. (w: Evaluate simple to more
complicated expressions in a repeatable and reproducible manner.
Intermediate Objectives 2.3
Operation on Fractions
MEQ: In this program according to the next objective,
the term fraction to indicates a rational number in the form a/b, where a and
b are integers and b is not equal to zero.
- Read a rational number expressed in decimal notation.
W: Rational numbers whose prime factorizations equal a
product of 2s and fives, and no other primes, have finite decimal
expansions. All other rationals have infinite decimal expansions -
recurring. See the site area on Number Theory.
- Write a rational number in decimal notation. (Decimal notation: form
of writing that uses the base 10 positional system of numeration.)
- Order rational numbers when expressed in decimal notation.
- Write a decimal number in expanded form, and vice versa.
W: Here is a reinforcement of place value.
- Round off a rational number expressed in decimal notation (the order of
magnitude will either be given, or determined by the context).
- Convert a rational number from decimal notation to scientific notation,
and vice versa ("Decimal number," as used here, refers to the set
of decimal numbers (rational numbers that can be written as fractions whose
denominator is a power of 10). This ensures that, for a given objective,
students do not have to deal with numbers in which the period is not zero.
- Convert a decimal number from decimal notation to fractional notation
(a/b)
.
- Convert a rational number from fractional notation (a/b) to decimal
notation.
- Convert a decimal number into a percentage, and vice versa.
- Convert a rational number from fractional notation (a/b) into a percentage
MEQ: Students who have attained Terminal Objective 2.3 of
this program will be able to use the positional system of numeration to
read and write a number and to compare numbers. All rational numbers can be
written in decimal notation, in fractional notation ( a/b),
and in scientific notation, and it is essential that students understand that
the same number may be expressed in different forms. Helping students make this
connection is the primary goal of having them carry out transformations. The
ability to convert a number from one notation to another and atrue understanding
of the numeration system will enable students to use the symbols =, »,
<, and > to compare numbers expressed in different forms.
Intermediate Objective 2.4
Solve problems involving fractions or rational numbers,
- Perform the following operations on decimal numbers: addition,
subtraction, multiplication, division and exponentiation (exponents should
be limited to the positive integers).
W: Hopefully, this includes column methods for arithmetic
operations, so that student can obtain results in a repeatable and
reproducible, and thus verifiable manner.
- Calculate the value of a chain of operations on decimal numbers. The chain
may include one or two sets of parentheses.
W: If the numbers are decimal, and many are present, use of a
calculator is appropriate. That being said, the foregoing comment on
calculations without a calculator (excepts the students pencil and paper) is
advised, I hope.
- Convert a fraction into an equivalent fraction.
W: Here a chance to emphasize simplification and the use of
prime factorizations.
- Compare fractions.
W: Do this first with like denominators. Then convert fractions being
compared to a common denominator. The cross product for comparision of
fractions a/b and c/d is a consequent of converting both to fractions over
the product bd of their denominators b and d. Here bd is not necessarily the
least common denominator.
- Perform the following operations on fractions: addition, subtraction,
multiplication, division and exponentiation (exponents should be limited to
the positive integers).
W: Make sure operations here are efficient.
- To calculate the value of a chain of operations on fractions. The chain
may include one or two sets of parentheses. (w: Evaluate simple and then
more complicated expressions involving fractions in a repeatable and
reproducible, and thus verifiable manner.)
W: Have this done by hand in the first instant.
Calculators are useful but students need efficient hand-on, pencil and paper
experience with fractions for the sake of algebra and trig, and senior high
school mathematics.
MEQ: Students who have attained Terminal Objective 2.4 of this program will have
mastered arithmetic algorithms involving decimal numbers or fractions. They must
be able to generalize the rules they have learned in order to add, subtract and
multiply decimal numbers and must also know the rules of division and
exponentiation. As well, they must learn all the operations performed on
fractions, for they will have explored only a few cases previously. The
aim is to equip students to deal with the fractions they encounter, regardless
of the context. (W: the emphasis here is mine) The
problems may sometimes involve percentages, negative rational numbers,
fractions, fractions greater than one, and the less common lowest-terms
fractions.
Intermediate Objective 3.1
Create figures by means of isometric transformations
- Construct the image of a figure under a translation.
- Construct the image of a figure under a rotation.
- Construct the image of a figure under a reflection.
- Construct the axis or axes of symmetry of an angle (bisector), of a
segment (median) or of a polygon.
W: isometric transformation = rigid body motion
(err, rigid region motion since we working with the plane) = a translation,
rotation or reflection movement one at a time or in some combination, one after
another.
Some Quotes from the document:
... for triangles and quadrilaterals. Students learn to
analyze these polygons by discovering the properties of their angles, sides,
altitudes and diagonals. They learn to construct polygons on the basis of
specific data, assimilate the vocabulary pertaining to these figures, measure
the angles, segments and surfaces, explore the transformations of these
figures, and make the connections that
will enable them to solve problems ...
Despite the emphasis on triangles and quadrilaterals, the
teacher should ensure that students continue to work with the other geometric
shapes they have studied.
Students ... will be able to use geometry instruments to
accurately construct the image of a figure on the basis of instructions
calling for a translation, a rotation or a reflection. By carrying out the
steps involved in constructing an image, the students learn about the
fundamental concepts of parallelism, perpendicularity and angles.
... They also learn that numerous polygons can be created from the same
figure by carrying out a single transformation or a series of similar
transformations on it.
Intermediate Objectives 3.2
Master straight lines or angles,
State Rules & Properties to Justify Conclusions,
- Identify parallel and perpendicular line segments
- Construct a straight line parallel or perpendicular to another straight
line, in accordance with certain requirements.
- Measure an angle in various figures.
W: Check that students know how to measure lengths with a
ruler. Some rulers measure from their endpoints. Others do not. Not knowing
about this difference between rulers can lead students to false results.
- Construct angles with the same vertex, using a protractor.
- Determine the measure of an angle from a statement (flat, straight or full
angle; perpendicular lines; complement, supplement or bisector of an angle;
angles with the same vertex).
- Justify assertions (show their reasoning) in solving a problem
involving angles with the same vertex.
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W: Students may arrive from elementary
school with the inability to properly use a ruler to measure. Check
that students can measure a known length between two points with the aid
of ruler where placing the end of the ruler on one of the point leads to
error - a too small value for the length. See diagram below.

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Appendix
MEQ: Statements Associated with Themes Covered in Mathematics
568-116 (Geometry)
Terminal Objective 3.2 1.
- Adjacent angles whose external sides are in a straight line are
supplementary.
- Vertical angles are congruent.
Terminal Objective 3.3 3.
- The sum of the measures of the interior angles of a triangle is 180o.
A Thought, Physical Reasoning: The latter follows from the
parallel postulate. But student may see this by taking a triangular
region of paper, cutting off the corners, and seeing latter fitted
together give a straight line. (Thanks to Professor KLM for the
for the idea.)
- In any triangle, the length of any side is less than the sum
of the lengths of the other two sides.
A thought: In a triangle with vertices A, B and
C, Let a taut string go from A to B and then to C, and attached at
each vertex. It has total length m AB + m BC. Now release the string
attachment to B and pull it straight, so it now covers the line
Segment AC. The following implies mAC < m AB + m BC, a statment
better seen in practice than on paper, at least for the students.
- In any triangle, the length of any side is greater than the
difference of the lengths of the other two sides.
A Physical Thought: See this using three
strings.
- In any triangle, the longest side is opposite the largest
angle.
W: From observation and leading questions of instructor.
- In any isosceles triangle, the angles opposite the congruent sides
are congruent.
- In any equilateral triangle, each of the angles measures 60°.
- In any right triangle, the acute angles are complementary.
- In any isosceles right triangle, each of the acute angles measures
45°.
- The axis of symmetry of an isosceles triangle coincides with a
median, a perpendicular bisector, a bisector and an altitude of the
triangle.
- The axes of symmetry of an equilateral triangle coincide with the
medians, perpendicular bisectors, bisectors and altitudes of the
triangle.
Terminal Objective 3.4 13.
- The opposite angles of a parallelogram are congruent.
- The opposite sides of a parallelogram are congruent.
- The diagonals of a parallelogram bisect each other.
- The diagonals of a rectangle are congruent.
- The diagonals of a rhombus are perpendicular to each other.
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page 34, MEQ: Terminal Objective 3.3
Solve problems involving triangles
page 35, MEQ Objectives,3.3
- Construct a triangle given the measures of the three sides, the
measures of two angles and the adjacent side, or the measures of one angle
and two adjacent sides (The foregoing are known as the Side-Side-Side,
Side-Angle-Side and Angle-Side-Angle triangle drawing or construction
methods. These methods might also be known as copying or reconstruction
methods. See the discussion of isometric triangles in further course (or
lesson) on geometry.
- Construct the altitudes, medians, and perpendicular bisectors of a
triangle. This ability comes from knowledge of how to
draw a perpendicular from a point to a line, how to bisect angles and lines
segments
- Express the relationships between the various types of triangles. This
may mean classification: a triangle may be both scalene and right angled. A
triangle may isoceles and not equilateral.
- Determine the measure of an angle or a segment on the basis of a
information identifying types of triangles, or to the altitudes,
medians or perpendicular bisectors of triangles. The information
may be written or drawn.
- To justify an assertion in solving a problem involving triangles.
That is, I think, students should say when they are using a property
of a triangle or type of triangle when arriving at conclusions.
MEQ, Prior Knowledge: In elementary school. students should have
learnt to distinguish among various triangles on the basis of their angles and
sides. As a result, students should be able to draw and describe
- a right triangle,
- an equilateral triangle
- and an isosceles triangle.
W: Verify or review prior knowledge (?) before proceeding.
W: Develop and verify student ability to recognize, describe and
draw
- scalene,
- scalene right,
- isosceles
- isosceles right, equilateral
Should be able to identify the characteristics and properties of these
triangles so that they can solve for missing measures (when feasible)
W: The site area on Euclidean
Geometry written for older students explains these constructions
MEQ: Intermediate Objectives 3.4
work with convex quadrilaterals
- Construct a quadrilateral, given sufficient data.
- Express the relationships between the various types of convex
quadrilaterals - recognize that one type may also be another or not.
- Determine the measure of an angle or a segment in a convex quadrilaterals
from information about its type.
- Use properties of each type of convex quadrilaterals to arrive at and
explain conclusions or calculations.
Intermediate Objectives 3.5
calculate perimeter or the area of certain polygons,
- Know when to calculate the area and when to calculate the perimeter.
W: Think of cost of painting a floor area versus the cost of painting the
walls of a room (doors ignored). Does that work?
- Calculate the perimeter of a triangle or a quadrilateral, given sufficient
data.
- Express the relationship between the perimeter and the sides of a triangle
or a quadrilateral, using shorthand notation for geometric quantities,
taking into account that different types of figures involve different
numbers and quantities
.
- Calculate the length of one side of a triangle or a quadrilateral, given
the perimeter and sufficient data.
Note: Here formulas for perimeters
are used in reverse. There-in the lies the start of the backwards
or indirect use of formulas.
- Convert a measure of length from one unit to another.
Note: If you take a length that equal to the sum
of two or more sub-lengths, the change of units is given by a
multiplication, and it can be applied in two different ways, namely to
the total length or to the sublengths. The equality of two different
ways to do the conversion leads to the distributive law. There-in lies
the principle that the description and addition of lengths should be
independent of the choice of units (Can someone give a better wording).
Note: The a geometric or physical assumption or concepts that results
should be independent of the choice of unit length (or unit direction and
length) give a context to imply (or reflect) the distributive
laws for real numbers, vectors and complex numbers.
- Calculate the area of a triangle or a trapezoid, given sufficient
data.
Note: This objective also ties in with one of the steps intended to
prepare students for the study of algebra.)
- Describe the relationship between the area and certain dimensions of a
triangle or a trapezoid using shorthand notation for geometric quantities.
- Convert a measure of surface area from one unit to another.
Note: Here is an opportunity to show that what is a
fraction according to one choice of unit may be whole multiple of a unit
with another choice. One can also illustrate here the product of
fractions - see why four fifths of two thirds is four
times two fifteenths.
- Calculate the perimeter or area of a polygon by transforming it or
breaking it down into triangles or trapezoids. :( This
objective also ties in with one of the steps intended to prepare students
for the study of algebra.)
Note: The logic-algebra area of this site gives an algebraic
explanation of the Pythagorean theorem and based on this type of computation
and the foil method)
Objective 4
work with statistical data
MEQ: The goal here is to teach students how to work with data so that
they are less dependent on the media's interpretation of tables and graphs.
MEQ: Statistics can help students ... to develop the ability to think
critically.
MEQ: Statistics is a subject that allows for ... use of simulations,
studies and surveys,. activities that encourage both the active participation
of the students and teamwork. They may also provide an opportunity to carry
out long-term projects.
W: suggestions for data collection activities:. Number of television sets,
siblings (brothers or sisters), number of people with computers, portable
music players (current models), distribution and average age of owners of
various items, and how to lie with statistics and graphical presentation of
data. - topic suitable in all or part with critical thinking. See next
topic
Intermediate Objectives 4.1
Interpret tables and graphs
- To interpret the information in a table.
- To interpret the information in various graphs.
MEQ: Develop and verify the ability to draw conclusions from a table or
graph. It is recommended that students be exposed to a wide variety of graphs.
On the basis of their initial observation of a situation, students can identify
a trend and draw conclusions. They learn that the way data are presented can
have an impact on the overall analysis of a situation.
MEQ: In elementary school, students should learn how to use different
tables and graphs relating to such subjects as temperature, marks, and
favourite shows in order to obtain specific information (e.g., the highest,
the lowest, the most common measure). Many activities allow students to
practice estimating and calculating the arithmetic mean of a set of data.
Intermediate Objective 4.2:
present information about a situation by means of a table or graph
- Tabulate data.
- present data in a horizontal or vertical bar graph.
- Present data in a broken-line graph.
- Present data in a circle graph.
- Highlight a detail in a table or graph.
W: The MEQ says the following about math 116 in the Math 216 objectives.
Italics are mine.
MEQ: In Secondary I, the students saw that a percentage was one way of
writing a rational number. They carried out transformations involving
percentages and expressed percentages as fractions, most notably in
statistics when drawing circle graphs.
W: Thus working with statistical data is seen as a means to reinforce and
develop fraction sense and skills.
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Quebec English Mathematics Education
A farce is a farce is a farce.
Area Intro Copy Right Matters Curriculum Cuts Intermediate Objectives MEQ Objectives
116 Textbooks 116 Objectives 116 Check List 116 Suggestions 216 Objectives 216 Check List 216 Book Review 216 Nonsense or BullShit 216 Suggestions 314 Objectives 314 Check List 314 Suggestions 416 Objectives 416 Check List 416 Suggestions 436 Objectives 436 Checklist 436 Suggestions 436 Book Reviews 436 Nonsense in 514 Objectives 514 Suggestions 514 Book Reviews 536 Objectives 536 Suggestions 536 Book Reviews
Area pages represent an effort to follow and understand the objectives of the
1997-2005, the prior reform, and the
text books required and used 1997-2005. In retrospect, the objectives and texts
in question
are too incoherent, too full of nonsense, for rational comprehension and for
service as a base for the current reform. A farce is a farce,
is a farce
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