This is the official waec gce 2018 syllabus and hot topics you need to pass waec gce For first series Jan/Feb and Second series beginning around October 2018. There will be two papers, Papers 1 and 2, both of which must be taken.
PAPER 1 : will consist of forty multiple-choice objective questions, covering the entire syllabus. Candidates will be required to answer all questions in 1hours for 40 marks. The questions will be drawn from the sections of the syllabus as follows:
Pure Mathematics – 30 questions
Statistics and probability – 4 questions
Vectors and Mechanics – 6 questions
PAPER 2: will consist of two sections, Sections A and B, to be answered in 2 hours for 100 marks.
Section A will consist of eight compulsory questions that areelementary in type for 48 marks. The questions shall be distributed as follows:
Pure Mathematics – 4 questions
Statistics and Probability – 2 questions
Vectors and Mechanics – 2 questions
Section B will consist of seven questions of greater length and difficulty put into three parts:Parts I, II and III as follows:
Part I: Pure Mathematics –
3 questions
Part II: Statistics and Probability – 2 questions
Part III: Vectors and Mechanics – 2 questions
Candidates will be required to answer four questions with at least one from each part for 52 marks.
DETAILED SYLLABUS
In addition to the following topics, more challenging questions may be set on topics in the General Mathematics/Mathematics (Core) syllabus.
In the column for CONTENTS, more detailed information on the topics to be tested is given while the limits imposed on the topics are stated under NOTES.
Topics which are marked with asterisks shall be tested in Section B of Paper 2 only.
KEY:
* Topics peculiar to Ghana only.
** Topics peculiar to Nigeria only
Topics Content Notes
I. Pure Mathematics
(1) Sets
(2) Surds
(3) Binary Operations
(4) Logical Reasoning
(5) Functions
(6) Polynomial Functions
(7) Rational Functions
(8) Indices and Logarithmic Functions
(9) Permutation
And Combinations.
(10) Binomial
Theorem
(11) Sequences
and Series
(12) Matrices and Linear Transformation
(13) Trigonometry
(14) Co-ordinate
Geometry
(15) Differentiation
(16) Integration
II. Statistics and
Probability
(17) Statistics
(18) Probability
III. Vectors and Mechanics
(19) Vectors
(20) Statics
(21) Dynamics (i) Idea of a set defined by a
property, Set notations and their
meanings.
(ii) Disjoint sets, Universal set and
complement of set
(iii) Venn diagrams, Use of sets
And Venn diagrams to solve
problems.
(iv) Commutative and Associative
laws, Distributive properties
over union and intersection.
Surds of the form , a and a+b where a is rational, b is a positive integer and n is not a perfect square.
Properties:
Closure, Commutativity, Associativity and Distributivity, Identity elements and inverses.
(i) Rule of syntax:
true or false statements,
rule of logic applied to arguments, implications and deductions.
(ii) The truth table
(i) Domain and co-domain of a
function.
(ii) One-to-one, onto, identity and
constant mapping;
(iii) Inverse of a function.
(iv) Composite of functions.
(i) Linear Functions, Equations and
Inequality
(ii) Quadratic Functions, Equations and Inequalities
(ii) Cubic Functions and Equations
(i) Rational functions of the form
Q(x) = ,g(x) ¹ 0.
where g(x) and f(x) are
polynomials. e.g.
f:x ®
(ii) Resolution of rational
functions into partial
fractions.
(i) Indices
(ii) Logarithms
(i) Simple cases of arrangements
(ii) Simple cases of selection of objects.
Expansion of (a + b) .
Use of (1+x) ≈1+nx for any rational n, where x is sufficiently small. e.g (0.998)
(i) Finite and Infinite sequences.
(ii) Linear sequence/Arithmetic
Progression (A.P.) and
Exponential sequence/Geometric
Progression (G.P.)
(iii) Finite and Infinite series.
(iv) Linear series (sum of A.P.) and
exponential series (sum of
G.P.)
*(v) Recurrence Series
(i) Matrices
(ii) Determinants
(iii) Inverse of 2 x 2 Matrices
(iv) Linear Transformation
(i) Trigonometric Ratios and Rules
(ii) Compound and Multiple Angles.
(iii) Trigonometric Functions and Equations
(i) Straight Lines
(ii) Conic Sections
(i) The idea of a limit
(ii) The derivative of a function
(iii)Differentiation of polynomials
(iv) Differentiation of trigonometric
Functions
(v) Product and quotient rules.
Differentiation of implicit
functions such as
ax + by = c
**(vi) Differentiation of
Transcendental Functions
(vii) Second order derivatives and
Rates of change and small changes (x), Concept of Maxima and Minima
(i) Indefinite Integral
(ii) Definite Integral
(iii) Applications of the Definite
Integral
(i) Tabulation and Graphical
representation of data
(ii) Measures of location
(iii) Measures of Dispersion
(iv)Correlation
(i) Meaning of probability.
(ii) Relative frequency.
(iii) Calculation of Probability using simple sample spaces.
(iv) Addition and multiplication of probabilities.
(v) Probability distributions.
(i) Definitions of scalar and vector
Quantities.
(ii) Representation of Vectors.
(iii) Algebra of Vectors.
(iv) Commutative, Associative and
Distributive Properties.
(v) Unit vectors.
(vi) Position Vectors.
(vii) Resolution and Composition
of Vectors.
(viii) Scalar (dot) product and its
application.
**(ix) Vector (cross) product and
its application.
(i) Definition of a force.
(ii) Representation of forces.
(iii) Composition and resolution of
coplanar forces acting at a point.
(iv) Composition and resolution of
general coplanar forces on rigid bodies.
(v) Equilibrium of Bodies.
(vi) Determination of Resultant.
(vii) Moments of forces.
(viii) Friction.
(i) The concepts of motion
(ii) Equations of Motion
(iii) The impulse and momentum
equations:
**(iv) Projectiles. (x : x is rea Ç, { },Ï, Î, , ,
U (universa set) and
A’ (Comple of set A).
More challenging problems involving u intersectio universal s subset and compleme set.
Three set problems. of De Morg laws to sol related problems
All the four operations surds
Rationalisin the denominat surds such , .
Use of properties t solve relate problems.
Using logic reasoning t determine t validity of compound statements involving implication and connectiviti Include use symbols: P
p q, p Ù q, q
Use of Trut tables to deduce conclusion compound statements Include negation.
The notatio e.g. f : x ®+4;
g : x ® x ; where x Î R .
Graphical representat of a functio Image and range.
Determinati of the inver of a one-to function e.
f: x →sx + inverse rela f : x →x also a func
Notation:(x) =f(g(x)) Restrict to simple algebraic functions o
Recognitio sketching graphs of li functions a equations.
Gradient a intercepts forms of lin equations i
ax + by + c y = mx + c; k. Parallel Perpendicu lines. Linea Inequalities 2x + 5y ≤ + 3y ≥ 3
Graphical representat of linear inequalities two variabl Application Linear Programmi
Recognitio sketching graphs of quadratic functions e
f: x → ax + c, where and c Є R.
Identificati vertex, axis symmetry, maximum minimum, increasing decreasing parts of a parabola. Include val of x for wh
f(x) >0 or f 0.
Solution of simultaneo equations: linear and quadratic. Method of completing squares for solving quadratic equations.
Express f(x ax + bx + the form f( a(x + d) + where k is maximum minimum v Roots of quadratic equations equal roots – 4ac = 0), and unequ roots (b – > 0), imagi roots (b – < 0); sum a product of of a quadra equation e. the roots o equation 3 5x + 2 = 0 and β, for equation w roots are a Solving quadratic inequalities
Recognitio cubic funct e.g. f: x → + bx +cx Drawing gr of cubic functions f given rang Factorizati cubic expression solution of cubic equations. Factorizati a ± b . B operations polynomial remainder factor theo i.e. the remainder f(x) is divid by f(x – a)(a). When f is zero, the – a) is a fa of f(x).
g(x) may b factorised i linear and quadratic factors (De of Numerat less than t of denomin which is le than or eq 4).
The four b operations.
Zeros, dom and range,
sketching required.
Laws of indices.
Application the laws of indices to evaluating products, quotients, powers an root.
Solve equa involving indices.
Laws of Logarithms Application logarithms calculation involving product, quotients, power (log nth roots (l log a ).
Solve equa involving logarithms (including change of base).
Reduction relation su as y = a (a,b are constants) linear form:
log y = b log x+log
Consider ot examples s as
log ab = l + x log b;
log (ab) =(log a + log
= x log ab
*Drawing a interpreting graphs of logarithmic functions e = ax . Estimating values of t constants b from the graph
Knowledge arrangeme and selecti expected. notations: and P fo selection a arrangeme respectivel should be noted and used. e.g. arrangeme students in row, drawi balls from with or wit replaceme
p = n!
(n-r)!
C = n!
r!(n-r)!
Use of the binomial theorem fo positive int index only.
Proof of th theorem no required.
e.g. (i) u ,…, u
(ii) u , u ,
Recognizin pattern of sequence.
(i) U = U (n-1)d, wh
d is the common difference.
(ii) U = U where r is t
common ra
(i) U + U U + … + U
(ii)U + U U + ….
(i) S = (U +U )
(ii) S = [2 (n – 1)d]
(iii) S = Ur ) , r<1
l – r
(iv) S =U (r – r>l.
r – 1
(v) Sum t infinity (S)
r < 1
Generating terms of a recurrence series and finding an explicit for for the sequence e 0.9999 =
+ + + + ….
Concept of matrix – st the order o matrix and indicate th type.
Equal matri – If two matrices ar equal, then their correspond elements a equal. Use equality to missing en of given matrices
Addition an subtraction matrices (u 3 x 3 matri
Multiplicati a matrix by scalar and matrix (up x 3 matrice
Evaluation determinan of 2 x 2 matrices.
**Evaluatio determinan 3 x 3 matri
Application determinan solution of simultaneo linear equations.
e.g. If A = , then
A =
Finding the images of points und given linear transforma
Determinin matrices of given linear transforma Finding the inverse of linear transforma (restrict to 2 matrices)
Finding the compositio linear transforma Recognizin Identity transforma
(i) reflectio the axis
(ii) reflecti the – axis
(iii) reflecti the line x
(iv) for anclockwise rotation thr θ about th origin.
(v) , the ge matrix for reflection i line throug origin maki an angle θ the positivaxis.
*Finding th equation of image of a under a giv linear transforma
Sine, Cosin and Tange general an (0 ≤θ≤360
Identify trigonomet ratios of an 30 , 45 , without us tables.
Use basic trigonomet ratios and reciprocals prove give trigonomet identities.
Evaluate si cosine and tangent of negative angles. Co degrees int radians an vice versa.
Application real life situations s as heights distances, perimeters, solution of triangles, a of elevatio depression, bearing(negative a positive an including u sine and c rules, etc,
Simple cas only.
sin (A B),c B),
tan(A B).
Use of compound angles in simple identities a solution of trigonomet ratios e.g. finding sin cos 150 et finding tan without usi mathemati tables or calculators leaving you answer as surd, etc.
Use of sim trigonomet identities t find trigonomet ratios of compound multiple an (up to 3A).
Relate trigonomet ratios to Cartesian Coordinate points (x, y the circle x y = r .
f:x →sin x,
g: x → a c + b sin x =
Graphs of cosine, tan and functio of the form
asinx + bc Identifying maximum minimum p increasing decreasing portions. Graphical solutions o simple trigonomet equations asin x + bc = k.
Solve trigonomet equations quadratic equations 2sin x – si – 3 =0, for x ≤ 360 .
*Express f( asin x + bc in the form Rcos (x ) o Rsin (x ) fo ≤ ≤ 90 and the result t calculate t minimum a maximum points of a given funct
Mid-point o line segme
Coordinate points whi divides a gi line in a giv ratio.
Distance between t points;
Gradient of line;
Equation of line:
(i) Intercep form;
(ii) Gradien form;
Conditions parallel and
perpendicu lines.
Calculate t acute angl between t intersectin lines e.g. if and m ar gradients o two interse lines, then = . If m m -1, then th lines are perpendicu
*The dista from an external po(x , y ) to given line
ax + by + c using the formula
d = ||.
Loci of vari points whi move unde given conditions
Equation of circle:
(i) Equatio terms of
centre, (a, and radiu
(x – a) +( b) = r ;
(ii) The ge form:
x +y +2 gx
+c = 0, wh
g, – f ) is th centre and radius, r = .
Tangents a normals to circles
Equations parabola in
rectangular Cartesian coordinate = 4ax, inclu parametric equations ( at)).
Finding the equation of tangent an normal to a parabola at given point
*Sketch gr of given parabola a find the equation of axis of symmetry.
(i) Intuitive treatment limit.
Relate to t gradient of
a curve. e. f (x) = .
(ii) Its mea and its
determinati from first
principles (simple ca only).
e.g. ax + ≤ 3, (n Î I )
e.g. ax –
+ …+k, where m Є is a consta
e.g. sin x, sin x b cos Where a, b constants.
including polynomial the form (a b x ) .
e.g. y = e log 3x,
y = ln x
(i) The equ of a tangen
a curve at point.
(ii) Restrict turning poi to
maxima an minima.
(iii)Include curve sket (up
to cubic functions) linear
kinematics.
(i) Integrati of polynom of
the form a ≠ -1. i.e.
òx dx = + ≠ -1.
(ii) Integrat of sum and
difference polynomial
e.g. ∫(4x +3x -+5) dx
**(iii)Integr of polynom
of the form n = -1.
i.e. ò x ln x
Simple problems o integration substitutio
Integration simple trigonomet functions o form .
(i) Plane and Rate o
Change. In linear
kinematics.
Relate to t area under
curve.
(ii)Volume solid of revolution
(iii) Approximat restricted t
trapezium r
Frequency tables.
Cumulative frequency tables.
Histogram (including unequal
class interv
Cumulative frequency (Ogive) for grouped da
Central tendency: mean, med mode, quar and percen
Mode and modal grou grouped da from a histogram.
Median fro grouped da
Mean for grouped da (use of an assumed required).
Determinati of:
(i) Range, I Quartile an
Semi inter-quartile ran
from an Og
(ii) Mean deviation, variance standard deviation f
grouped an ungrouped
data. Using assumed
mean or tr mean.
Scatter diagrams, of line of b fit to predi one variabl from anoth meaning of correlation; positive, negative a zero correlation
Spearman’ Rank coefficient.
Use data without tie
*Equation line of best by least sq method. (Li of regressi y on x).
Tossing 2 once; drawi from a box or without replaceme
Equally like events, mu exclusive, independe and conditi events.
Include the probability event considered the probabi of a set.
(i) Binomia distribution
P(x=r)= C p , where
Probability success =
Probability failure = q ,
p + q = 1 a is the number trials. Simp problem only.
**(ii) Poiss distribution
P(x) = , wh = np,
n is large a is small.
Representa of vector in form ai + b
Addition an subtraction
multiplicati vectors by vectors, sc and equati
vectors. Triangle, Parallelogr and polygo Laws.
Illustrate through diagram,
Illustrate b solving problems i
elementary plane geo e.g
con-curren medians a
diagonals.
The notatio
i for the un vector 1
0
j for the un vector 0
1
along the x y axes respectivel Calculation unit vector along a i.e. .
Position ve of A relativ O is .
Position ve of the mid of a line segment. R to coordina of mid-poin a line seg
*Position v of a point t divides a li segment internally in ratio (λ : μ
Applying triangle, parallelogra and polygo laws to compositio forces acti a point. e.g find the resultant of forces (12 030 ) and 100 ) acti a point.
*Find the resultant of vectors by scale drawi
Finding an between t vectors.
Using the d product to establish s trigonomet formulae a
(i) Cos (a ±
cos a cos a sin b
(ii) sin (a ±
sin a cos b sin b cosa
(iii) c = a b – 2ab c
(iv) =.
Apply to si problems e
suspension particles by
strings.
Resultant o forces, La theorem
Using the principles moments t solve relate problems.
Distinction between smooth an rough plan
Determinati of the coefficient friction.
The definiti of displaceme
velocity, acceleratio and speed.
Compositio velocities a acceleratio
Rectilinear motion.
Newton’s l of motion.
Application Newton’s L
Motion alo inclined pla (resolving force upon plane into normal and frictional forces).
Motion und gravity (ign air resistan
Application the equatio of motions: u + at,
S = ut + ½
v = u +
Conservati Linear Momentum(exclude coefficient restitution)
Distinguish between momentum impulse.
Objects projected a angle to th horizontal.
1. UNITS
Candidates should be familiar with the following units and their symbols.
( 1 ) Length
1000 millimetres (mm) = 100 centimetres (cm) = 1 metre(m).
1000 metres = 1 kilometre (km)
( 2 ) Area
10,000 square metres (m ) = 1 hectare (ha)
( 3 ) Capacity
1000 cubic centimeters (cm ) = 1 litre (l)
( 4 ) Mass
milligrammes (mg) = 1 gramme (g)
1000 grammes (g) = 1 kilogramme( kg )
ogrammes (kg) = 1 tonne.
( 5) Currencies
The Gambia – 100 bututs (b) = 1 Dalasi (D)
Ghana – 100 Ghana pesewas (Gp) = 1 Ghana Cedi ( GH¢)
Liberia – 100 cents (c) = 1 Liberian Dollar (LD)
Nigeria – 100 kobo (k) = 1 Naira (N)
Sierra Leone – 100 cents (c) = 1 Leone (Le)
UK – 100 pence (p) = 1 pound (£)
USA – 100 cents (c) = 1 dollar ($)
French Speaking territories 100 centimes (c) = 1 Franc (fr)
Any other units used will be defined.
2. OTHER IMPORTANT INFORMATION
( 1) Use of Mathematical and Statistical Tables
Mathematics and Statistical tables, published or approved by WAEC may be used in the examination room. Where the degree of accuracy is not specified in a question, the degree of accuracy expected will be that obtainable from the mathematical tables.
Use of calculators
The use of non-programmable, silent and cordless calculators is allowed. The calculators must, however not have a paper print out nor be capable of receiving/sending any information. Phones with or without calculators are not allowed.
Other Materials Required for the examination
Candidates should bring rulers, pairs of compasses, protractors, set squares etc required for papers of the subject. They will
not be allowed to borrow such instruments and any other material from other candidates in the examination hall.
Graph papers ruled in 2mm squares will be provided for any paper in which it is required.
( 4) Disclaimer
In spite of the provisions made in paragraphs 2 (1) and (2) above, it should be noted that some questions may prohibit the use of tables and/or calculators.