Secondary Education Curriculum 2076
Maths
Grades: 11 Subject code: Mat. 401
Credit hrs: 5 Working hrs: 160
1. Introduction
Mathematics is an indispensable in many fields. It is essential in the field of engineering, medicine, natural sciences, finance and other social sciences. The branch of mathematics concerned with application of mathematical knowledge to other fields and inspires new mathematical discoveries. The new discoveries in mathematics led to the development of entirely new mathematical disciplines. School mathematics is necessary as the backbone for higher study in different disciplines. Mathematics curriculum at secondary level is the extension of mathematics curriculum offered in lower grades (1 to 10).
This course of Mathematics is designed for grade 11 and 12 students as an optional subject as per the curriculum structure prescribed by the National Curriculum Framework, 2075. This course will be delivered using both the conceptual and theoretical inputs through demonstration and presentation, discussion, and group works as well as practical and project works in the real world context. Calculation strategies and problem solving skills will be an integral part of the delivery.
This course includes different contents like; Algebra, Trigonometry, Analytic Geometry, Vectors, Statistics and Probability, Calculus, Computational Methods and Mechanics or Mathematics for Economics and Finance.
Student’s content knowledge in different sectors of mathematics with higher understanding is possible only with appropriate pedagogical skills of their teachers. So, classroom teaching must be based on student-centered approaches like project work, problem solving etc.
2. Level-wise Competencies
On completion of this course, students will have the following competencies:
1. apply numerical methods to solve algebraic equation and calculate
definite integrals and use simplex method to solve linear programming problems (LPP).
2. use principles of elementary logic to find the validity
of statement.
3. make connections and present
the relationships between abstract algebraic structures with familiar
number systems such as the
integers and real numbers.
4. use basic properties of
elementary functions and their inverse including linear, quadratic, reciprocal, polynomial, rational, absolute
value, exponential, logarithm, sine, cosine and tangent functions.
5. identify and derive equations
or graphs for lines, circles,
parabolas, ellipses, and hyperbolas,
6. use relative motion, Newton’s
laws of motion
in solving related
problems.
7. articulate personal
values of statistics and probability in everyday life.
8. apply derivatives to
determine the nature of the function and determine the maxima and minima of a function and normal increasing
and decreasing function into context of daily
life.
9. explain anti-derivatives as an inverse process of derivative and use them in various
situations.
10. use vectors and mechanics in day to day life. develop proficiency in application of mathematics in economics and finance.
3. Grade-wise Learning Outcomes
On completion of the course, the students will be able to:
S. N. |
Content Domain/area |
Learning Outcomes |
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Grade 11 |
Grade 12 |
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1. |
Algebra |
1.1 acquaint with logical connectives and use them. |
solve the problems related to permutation and combinations.
state and prove binomial theorems
for positive integral index.
state binomial theorem for any index (without proof).
find the general term and binomial coefficient.
use binomial theorem in application to approximation.
define Euler's number.
Expand ex, ax and log(1+x) using
binomial theorem.
define binary operation and apply
binary operation on sets of integers.
state properties of binary operations.
define group, finite group,
infinite group and abelian group.
prove the uniqueness of identity,
uniqueness of inverse, cancelation law.
state and prove De Moivre's theorem. |
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1.2 construct truth
tables. |
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1.3 prove set
identities. |
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1.4 state field axioms,
order axioms of real numbers. |
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1.5 define interval and absolute
value of real numbers. |
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1.6 interpret real numbers geometrically. |
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1.7 define ordered pair, Cartesian product, domain and range of
relation, inverse of relation and
solve the related
problems. |
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1.8 define domain and range of a
function, inverse function composite function. |
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1.9 find domain and range of a
function. |
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1.10 find inverse function of given invertible function. |
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1.11 calculate composite function of given
functions. |
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1.12 define odd and even functions, periodicity of a function, monotonicity of a function. |
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1.13 sketch
graphs of polynomial |
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functions (𝑒𝑔: a , 𝑥2−𝑎2 , a ,𝑎𝑥2 + bx + 𝑥 𝑥−𝑎 𝑥+𝑎 c,
a𝑥3), trigonometric, exponential, logarithmic functions.
define sequence and series.
classify sequences and series (arithmetic,
geometric, harmonic).
solve the problems related to arithmetic,
geometric and harmonic sequences and series.
establish relation among
A.M, G. M
and H.M.
find the sum of infinite geometric series.
obtain transpose of matrix and verify its properties.
calculate minors, cofactors, adjoint,
determinant and inverse of a square matrix.
solve the problems using properties of determinants.
define a complex
number.
solve the problems related to algebra of complex numbers.
represent complex number geometrically.
find conjugate and absolute value
(modulus) of a complex numbers
and verify their properties.
find square root
of a complex number.
express complex number in polar
form. |
find the roots of a complex
number by De Moivre's theorem.
solve the problems using properties
of cube roots of unity.
apply Euler's formula.
define polynomial function
and polynomial equation.
state and apply fundamental
theorem of algebra (without proof).
find roots of a quadratic equation.
establish the relation between
roots and coefficient of quadratic equation.
form a quadratic equation with given roots.
sum of finite natural numbers,
sum of squares of first n-natural
numbers, sum of cubes of first
n-natural numbers, intuition and induction, principle of mathematical induction.
using principle of mathematical
induction, find the sum of finite
natural numbers, sum of squares of first n-natural numbers, sum of cubes of first n-natural numbers.
solve system of linear equations
by Cramer's rule and matrix
method (row- equivalent and
inverse) up to three variables. |
2. |
Trigonometr y |
2.1 solve the problems using properties of
a triangle (sine law, cosine law,
tangent law, projection laws,
half angle laws). |
2.1 define inverse
circular functions. establish the relations on inverse
circular functions. |
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2.2 solve the triangle(simple cases) |
2.2 find the general
solution of trigonometric equations |
3. |
Analytic geometry |
find the length of perpendicular
from a given point to a given line.
find the equation of bisectors of
the angles between two straight lines.
write the condition of general equation
of second degree in x and y to
represent a pair of straight lines.
find angle between pair of lines
and bisectors of the angles between
pair of lines given by homogenous
second degree equation in x and y.
solve the problems related to condition
of tangency of a line at a point
to the circle.
find the equations of tangent and
normal to a circle at given point.
find the standard equation of parabola.
find the equations of tangent and
normal to a parabola at given point. |
obtain standard equation of ellipse and
hyperbola.
find direction ratios and direction cosines of a line.
find the general equation of a plane.
find equation of a plane in intercept and normal form.
find the equation of plane through three
given points.
find the equation of geometric plane
through the intersection of two given
planes.
find angle between two geometric planes.
write the conditions of parallel and perpendicular planes.
find the distance of a point from a plane. |
4. |
Vectors |
identify collinear and non- collinear
vectors; coplanar and non-coplanar vectors.
write linear combination of vectors.
find scalar product of two vectors. find angle between two vectors.
interpret scalar product of vectors
geometrically.
apply properties of scalar product
of vectors in trigonometry and geometry. |
define vector product of two vectors,
interpretation vector product geometrically.
solve the problems using properties of vector product.
apply vector product in plane trigonometry and geometry. |
5. |
Statistics and |
5.1 calculate
the measures of |
5.1 calculate correlation coefficient |
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Probability |
dispersion (standard deviation). |
by Karl Pearson's method. |
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5.2 calculate variance,
coefficient of variation and
coefficient of skewness. |
5.2
calculate rank correlation coefficient
by Spearman method. |
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define random experiment, sample
space, event, equally likely cases,
mutually exclusive events,
exhaustive cases, favorable cases,
independent and dependent events.
find the probability using two basic laws
of probability. |
interpret correlation coefficient.
obtain regression line of y on x
and x on y.
solve the simple problems of probability
using combinations.
solve the problems related to conditional probability. |
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5.7 use binomial distribution and calculate
mean and standard deviation of
binomial distribution. |
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6. |
Calculus |
6.1 define limits
of a function. |
find the derivatives of inverse trigonometric, exponential and logarithmic
functions by definition.
establish the relationship between
continuity and differentiability.
differentiate the hyperbolic function
and inverse hyperbolic function
evaluate the limits by L'hospital's rule
(for 0/0, ∞/∞).
find the tangent and normal by using derivatives.
interpret geometrically and verify
Rolle's theorem and Mean Value
theorem.
find the anti-derivatives of standard
integrals, integrals reducible to
standard forms and rational function (using partial fractions also).
solve the differential equation of first
order and first degree by
separable variables, homogenous, linear
and exact |
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6.2 identify indeterminate forms. |
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6.3 apply algebraic
properties of limits. |
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6.4 evaluate limits by using theorems on limits of algebraic, trigonometric,
exponential and logarithmic functions. |
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6.5 define and test continuity of a function. |
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6.6 define and classify discontinuity. |
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6.7 interpret derivatives geometrically. |
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6.8 find the derivatives, derivative of a function by first principle (algebraic, trigonometric exponential and logarithmic functions). |
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6.9 find the derivatives by using rules of differentiation (sum, difference, constant multiple, chain rule, product rule, quotient rule, power and general
power rules). |
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find the derivatives of parametric
and implicit functions.
calculate higher order derivatives.
check the monotonicity of a function using
derivative.
find extreme values of a function.
find the concavity of function by using
derivative.
define integration as reverse of
differentiation.
evaluate the integral using basic integrals.
integrate by substitution and by
integration by parts
method.
evaluate the definite integral.
find area between
two curves. |
differential equation. |
7. |
Computation al methods |
tell the basic idea of characteristics
of numerical computing, accuracy,
rate of convergence, numerical
stability, efficiency).
approximate error in computing roots of non-linear equation.
solve algebraic polynomial and transcendental
equations by bisection method |
solve algebraic polynomial and
transcendental equations by Newton-Raphson methods.
solve the linear
programming problems (LPP)
by simplex method of two variables.
integrate numerically by trapezoidal
and Simpson's rules and estimate the
errors. |
8. |
Mechanics |
find resultant forces by parallelogram of forces.
solve the problems related to composition
and resolution of forces.
obtain resultant of coplanar forces/vectors acting
on a point.
solve the forces/vectors related problems using
Lami’s theorem.
solve the problems of motion of particle
in a straight line, motion with uniform acceleration, |
find the resultant of like and unlike parallel forces/vectors.
solve the problems related to Newton's
laws of motion and projectile. |
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Or |
motion under the gravity, motion in
a smooth inclined plane. |
Or |
Or |
8.1 interpret results in the context of original real- world
problems. |
use quadratic functions in economics,
understand input- output analysis
and dynamics of market price.
find difference equations.
work with Cobweb model and lagged
Keynesian macroeconomic model.
explain mathematically equilibrium and break-even.
construct mathematical models involving
consumer and producer surplus.
use quadratic functions in economics.
do input- output
analysis.
analyze dynamics of market.
construct difference equations, 8.11understand
cobweb model, lagged Keynesian macroeconomics model. |
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Mathematics for
Economics and Finance |
8.2 test how well it describes the original real- world problem and how well it describes past and/or with what accuracy it predicts future behavior. |
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8.3 Model using demand and supply
function. |
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8.4 Find cost, revenue, and profit functions. |
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8.5 Compute elasticity of demands. |
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8.6 Construct mathematical models
involving supply and income, budget and cost constraint. |
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8.7 Test the equilibrium and break even condition. |
1. Scope and Sequence of Contents
S.N. |
Content area |
Grade 11 |
Grade 12 |
||
Contents |
Working hrs |
|
Working hrs |
||
1 |
Alge bra |
1.1 Logic and Set: introduction of Logic, statements,
logical connectives, truth tables, basic laws of logic, theorems based on set operations. |
32 |
1.1 Permutation and combination: Basic principle of
counting, Permutation of (a) set of objects all different (b) set of objects not all different (c) circular arrangement (d) repeated use of the same objects. Combination of |
32 |
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1.2 Real numbers: field axioms, order |
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axioms, interval, absolute
value, geometric representation of real numbers.
Function: Review, domain & range of a function, Inverse function, composite function,
functions of special type, algebraic (linear, quadratic & cubic), Trigonometric, exponential, logarithmic)
Curve sketching: odd and even functions,
periodicity of a function, symmetry (about origin, x-and y-axis), monotonicity
of a function, sketching graphs of polynomials and some
rational functions (𝑎 ,
𝑥2−𝑎2 , 𝑎 ,a𝑥2 + 𝑏𝑥 + 𝑥 𝑥−𝑎 𝑥+𝑎 𝑐, 𝑎𝑥3), Trigonometric, exponential, logarithmic function (simple cases only)
Sequence and series: arithmetic, geometric, harmonic sequences and series and their properties A.M, G.M, H.M and their relations,
sum of infinite geometric series.
Matrices and determinants: Transpose of a matrix and its properties, |
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things all different, Properties of combination
Binomial Theorem: Binomial theorem for a positive integral index, general
term. Binomial coefficient,
Binomial theorem for any index (without proof), application to approximation. Euler's number.
Expansion of 𝑒𝑥, 𝑎𝑥 and log(1+x) (without proof)
Elementary Group Theory: Binary operation, Binary operation
on sets of integers and their
properties, Definition of a group,
Finite and infinite groups. Uniqueness of identity, Uniqueness of inverse, Cancelation law, Abelian group.
Complex numbers: De Moivre's theorem and its application
in finding the roots of a complex
number, properties of cube roots
of unity. Euler's formula.
Quadratic equation: Nature and roots of a quadratic equation, Relation between roots and coefficient. Formation of a quadratic equation, Symmetric roots, one or both roots common.
Mathematical induction: Sum of finite natural numbers,
sum of squares of first n-natural
numbers, Sum of cubes of first n-
natural numbers, Intuition and induction, principle of mathematical induction.
Matrix based system of linear equation: Consistency of system
of linear equations, Solution of |
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Minors and cofactors, Adjoint, Inverse matrix,
Determinant of a square matrix, Properties of determinants (without proof) 1.7 Complex number:
definition
imaginary unit, algebra of complex numbers, geometric representation, absolute value (Modulus) and conjugate
of a complex numbers and their properties, square root of a complex number, polar form of complex
numbers. |
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a system of linear equations by Cramer's rule. Matrix method (row- equivalent and Inverse) up to three variables. |
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2 |
Trigono metry |
Properties of a triangle (Sine
law, Cosine law, tangent law,
Projection laws, Half
angle laws).
Solution of triangle(simple cases) |
8 |
Inverse circular functions.
Trigonometric equations and general values |
8 |
3 |
Analytic Geometr y |
3.1 Straight Line: length of perpendicular from a given point to a given line. Bisectors of the angles between two straight lines.
Pair of straight lines: General equation of second
degree in x and
y, condition for representing a
pair of lines. Homogenous second-degree equation in x and y. angle between
pair of lines.
Bisectors of the angles between
pair of |
14 |
Conic section: Standard equations of Ellipse and hyperbola.
Coordinates in space: direction cosines and ratios of a line general equation of a plane, equation
of a plane in intercept and normal
form, plane through 3 given
points, plane through
the intersection of two
given planes, parallel and perpendicular planes, angle between two planes, distance of a point from a plane. |
14 |
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lines.
Circle: Condition of tangency of a line at a point to the circle, Tangent
and normal to a circle.
Conic section: Standard equation of parabola,
equations of tangent and normal
to a parabola at a given point. |
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4 |
Vectors |
Vectors: collinear and non collinear vectors, coplanar and non- coplanar vectors, linear combination of vectors,
Product of vectors: scalar product of two vectors, angle between two vectors, geometric interpretation of scalar product,
properties of scalar product, condition of perpendicularity. |
8 |
Product of Vectors: vector product of two vectors, geometrical interpretation of vector product, properties of vector product, application of vector product in plane trigonometry.
Scalar triple Product: introduction of scalar triple
product |
8 |
5 |
Statistics & Probabili ty |
Measure of Dispersion: introduction, standard deviation), variance, coefficient of variation, Skewness (Karl
Pearson and Bowley)
Probability: independent cases, mathematical and empirical definition of probability,
two basic laws of probability(without proof). |
10 |
Correlation and Regression: correlation, nature of correlation, correlation coefficient by Karl Pearson's method, interpretation of correlation coefficient, properties of correlation coefficient (without proof), rank correlation by Spearman, regression equation, regression line of y on x and x on
y.
Probability: Dependent cases, conditional probability (without proof), binomial distribution, mean and standard deviation of |
10 |
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binomial distribution (without proof). |
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6 |
Calculus |
Limits and continuity: limits of a function, indeterminate forms. algebraic
properties of limits (without
proof), Basic theorems on limits of algebraic, trigonometric, exponential and logarithmic
functions, continuity of a function, types of discontinuity, graphs of discontinuous function.
Derivatives: derivative of a
function, derivatives of algebraic, trigonometric, exponential
and logarithmic functions by definition (simple forms), rules of differentiation. derivatives
of parametric and implicit functions, higher order derivatives, geometric interpretation
of derivative, monotonicity of a function, interval of monotonicity,
extreme of a function, concavity, points of inflection, derivative as rate
of measure.
Anti-derivatives: anti-derivative.
integration using basic integrals, integration by substitution and
by |
32 |
Derivatives: derivative of inverse trigonometric, exponential and logarithmic function by definition, relationship between continuity and differentiability, rules for
differentiating hyperbolic function
and inverse hyperbolic function, L’Hospital's rule (0/0, ∞/∞), differentials, tangent and normal, geometrical interpretation and application of Rolle’s theorem and mean value
theorem.
Anti-derivatives: anti- derivatives, standard integrals, integrals reducible to standard forms, integrals of rational function.
Differential equations: differential equation and its
order, degree, differential equations
of first order and first degree,
differential equations with
separable variables, homogenous, linear and exact differential equations. |
32 |
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parts methods, the definite integral, the definite
integral as an area under the
given curve, area between two curves. |
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7 |
Computa tional Methods |
Linear programming Problems: linear programming problems(LPP), solution
of LPP by simplex method (two variables)
Numerical computation Characteristics of numerical computation, accuracy, rate of convergence, numerical stability, efficiency |
10 |
Computing Roots: Approximation & error
in computation of roots in non- linear equation, Algebraic and transcendental equations & their solution by bisection and Newton- Raphson Methods
System of linear equations: Gauss elimination method, Gauss- Seidal method, Ill conditioned systems.
Numerical
integration Trapezoidal
and Simpson's rules, estimation of errors. |
10 |
8 |
Mechani cs Or
Mathem atics for Economi cs and Finance |
Statics: Forces and resultant forces, parallelogram law of forces,
composition and resolution of forces, Resultant of coplanar forces acting on a point, Triangle law of forces and Lami's theorem.
Dynamics: Motion of particle in a straight line, Motion with uniform acceleration, motion
under the gravity, motion down a smooth inclined plane. The concepts and
theorem restated and formulated as application of calculus
Mathematics for economics and finance: |
12 |
Statics: Resultant of like and unlike parallel forces.
Dynamics: Newton's laws of motion and projectile.
Mathematics for economics and finance: Consumer and Producer Surplus, Quadratic functions in Economics, Input-Output analysis, Dynamics of market price, Difference equations, The Cobweb model, Lagged Keynesian macroeconomic model. |
12 |
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Mathematical Models and Functions, Demand
and supply, Cost, Revenue, and profit functions, Elasticity of demand, supply
and income , Budget and Cost Constraints, Equilibrium and break
even |
|
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Total |
126 |
|
126 |
2. Practical and project
activities
The students are required to do different practical activities in different content areas and the teachers should plan in the same way. Total of 34 working hours is allocated for practical and project activities in each of the grades 11 and 12. The following table shows estimated working hours for practical activities in different content areas of grade 11 and 12
S. No. |
Content area/domain |
Working hrs in each of the grades 11 and 12 |
1. |
Algebra |
10 |
2. |
Trigonometry |
2 |
3. |
Analytic geometry |
4 |
4. |
Vectors |
2 |
5. |
Statistics & Probability |
2 |
6. |
Calculus |
10 |
7. |
Computational methods |
2 |
8. |
Mechanics or Mathematics for Economics and
Finance |
2 |
Total |
34 |
Here are some sample (examples) of practical and project activities.
Sample project works/mathematical activities for grade 11
1.
Take a square of arbitrary
measure assuming its area is one square unit. Divide it in to four equal
parts and shade one of them. Again take one not shaded part of that square and
shade one fourth of it. Repeat the same process continuously and find the area of the shaded region.
2.
Write two simple statements related to mathematics and write four compound statements
by using them.
3.
Prepare a model to illustrate the values of sine function and cosine function for different
p
angles which are multiples of 2 and p.
4.
Verify the sine law by taking particular triangle in four quadrants.
5.
Prepare a concrete
material to show parabola by using thread
and nail in wooden panel.
6.
Verify that the equation
of a line passing through the point of intersection of two lines
a1x
+ b1y + c1 = 0 and a2x + b2y + c2 = 0 is of the form (a1x + b1y + c1) + K(a2x + b2y + c2) = 0.
7.
Prepare a model and verify
that angle in a semi-circle is a right angle by using vector
method.
8.
Geometrically interpret the scalar product
of two vectors.
9.
Collect the scores of grade 10 students
in mathematics and English from your
school.
a.
Make separate frequency distribution with class size 10.
b.
Which subject has more uniform/consistent result?
c.
Make the group report and present.
10. Roll two dices
simultaneously 20 times and list all outcomes. Write the events that the sum of numbers on the top of both dice is
a) even b) odd in all above
list. Examine either they are mutually exclusive or not. Also find the probabilities of both events.
11. Collect the data of age of more than 100 peoples
of your community.
a.
Make continuous frequency distributions of class size 20, 15, 12, 10, 8 and 5.
b. Construct histograms and the
frequency polygons and frequency curves in each cases.
c.
Estimate the area between the frequency curve
and frequency polygon
in each cases.
d.
Find the trend
and generalize the result.
e.
Present the result
in class.
12. A metallic bar of length 96 inch was used to make a rectangular frame. Find the dimension of the
rectangular metallic frame with maximum area.
13. Find the roots of any polynomial by using ICT and present
in the classroom.
14. Search a daily life problem on projectile motion. Solve that problem and present in the classroom.
15. Construct mathematical models involving supply and income, budget and cost constraint
of a production company.
Sample project works/mathematical activities for grade 12
1. Represent the binomial
theorem of power 1, 2, and 3 separately by using concrete materials and generalize it with n dimension relating
with Pascal's triangle.
2. Take four sets R, Q, Z, N
and the binary operations +, ‒, ×. Test which binary operation forms group or not with R, Q, Z, N.
3.
Prepare a model to explore
the principal value of the function sin–1x using a unit circle and present in the
classroom.
4. Draw the graph of sin‒1x, using the graph of sin x and demonstrate the concept of mirror reflection (about the line y = x).
5. Fix a point on the middle of the ceiling of your classroom.
Find the distance
between that point
and four corners
of the floor.
6. Construct an ellipse using a rectangle.
7. Express the area of triangle and parallelogram in terms of vector.
8. Verify geometrically that: 𝑐⃗ × (𝑎⃗ + 𝑏̅ ) = 𝑐⃗ ×
𝑎⃗ +
𝑐⃗ × 𝑏̅
9. Collect the grades obtained
by 10 students of grade 11 in their final examination of English and Mathematics. Find the correlation coefficient
between the grades of two subjects and analyze the result.
10. Find two regression
equations by taking two set of data from your textbook. Find the point where
the two regression equations intersect. Analyze the result
and prepare a report.
11. Find, how many peoples will
be there after 5 years in your districts by using the concept of differentiation.
12. Verify that the integration
is the reverse process of differentiation with examples and curves.
13. Correlate the trapezoidal rule and Simpson
rule of numerical integration with suitable example.
14. Identify different
applications of Newton's
law of motion and related cases in our daily
life.
15. Construct and present Cobweb
model and lagged Keynesian macroeconomic model .
6. Learning Facilitation Method and Process
Teacher has to emphasis on the active learning process and on the creative solution of the exercise included in the textbook rather than teacher centered method while teaching mathematics. Students need to be encouraged to use the skills and knowledge related to maths in their house, neighborhood, school and daily activities. Teacher has to analyze and diagnose the weakness of the students and create appropriate learning environment to solve mathematical problems in the process of teaching learning.
The emphasis should be given to use diverse methods and techniques for learning facilitation. However, the focus should be given to those method and techniques that promote students' active participation in the learning process. The following are some of the teaching methods that can be used to develop mathematical competencies of the students:
· Inductive and deductive method
· Problem solving
method
· Case study
· Project work method
· Question answer and discussion method
· Discovery method/
use of ICT
· Co-operative learning
7. Student Assessment
Evaluation is an integral part of learning process. Both formative and summative evaluation system will be used to evaluate the learning of the students. Students should be evaluated to assess the learning achievements of the students. There are two basic purposes of evaluating students in Mathematics: first, to provide regular feedback to the students and bringing improvement in student learning-the formative purpose; and second, to identify student's learning levels for decision making.
a. Internal Examination/Assessment
i. Project Work: Each Student should do one project work from each of eight content
areas and has to give a 15 minute
presentation for each project work in classroom. These seven project works will be documented in a file
and will be submitted at the time of external
examination. Out of eight projects, any one should be presented at the
time of external examination by each student.
ii. Mathematical activity: Mathematical activities mean various activities in which students willingly and purposefully work
on Mathematics. Mathematical activities can include
various activities like (i) Hands-on activities (ii) Experimental activities
(iii) physical activities. Each
student should do one activity from each of eight content area (altogether seven activities). These
activities will be documented in a file and will be submitted at the time of external examination. Out of eight
activities, any one should be presented at the
time of external examination by each student.
iii. Demonstration of Competency in classroom activity: During teaching learning
process in classroom, students
demonstrate 10 competencies through activities. The evaluation of students'
performance should be recorded by subject teacher
on the following basis.
· Through mathematical activities and presentation of project works.
· Identifying basic
and fundamental knowledge and skills.
· Fostering students'
ability to think and express
with good perspectives and logically on matters
of everyday life.
· Finding pleasure in
mathematical activities and appreciate the value of mathematical approaches.
· Fostering and attitude to willingly make use of mathematics in their lives as well as in their learning.
iv.
Marks from trimester examinations: Marks from each trimester examination will be converted into full marks 3 and calculated
total marks of two trimester
in each grade.
The weightage for internal assessment are as follows:
Classroom participation |
Project work /Mathematical activity (at least 10 work/activities from the above
mentioned project work/mathematical activities should
be evaluated) |
Demonstration of competency in classroom activity |
Marks from terminal exams |
Total |
3 |
10 |
6 |
6 |
25 |
b. External Examination/Evaluation
External evaluation of the students will be based on the written examination at the end of each grade. It carries 75 percent of the total weightage. The types and number questions will be as per the test specification chart developed by the Curriculum Development Centre.
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