#### Topics

##### Trigonometric Functions

- Concept of Angle
- Introduction of Trigonometric Functions
- Signs of Trigonometric Functions
- Domain and Range of Trigonometric Functions
- Trigonometric Functions of Sum and Difference of Two Angles
- Trigonometric Equations
- Truth of the Identity
- Negative Function Or Trigonometric Functions of Negative Angles
- 90 Degree Plusminus X Function
- Conversion from One Measure to Another
- 180 Degree Plusminus X Function
- 2X Function
- 3X Function
- Expressing Sin (X±Y) and Cos (X±Y) in Terms of Sinx, Siny, Cosx and Cosy and Their Simple Applications
- Graphs of Trigonometric Functions
- Transformation Formulae
- Values of Trigonometric Functions at Multiples and Submultiples of an Angle
- Sine and Cosine Formulae and Their Applications

##### Binomial Theorem

##### Statistics

- Measures of Dispersion
- Concept of Range
- Mean Deviation
- Introduction of Variance and Standard Deviation
- Standard Deviation
- Standard Deviation of a Discrete Frequency Distribution
- Standard Deviation of a Continuous Frequency Distribution
- Shortcut Method to Find Variance and Standard Deviation
- Introduction of Analysis of Frequency Distributions
- Comparison of Two Frequency Distributions with Same Mean
- Statistics Concept
- Central Tendency - Mean
- Central Tendency - Median
- Concept of Mode
- Measures of Dispersion - Quartile Deviation
- Standard Deviation - by Short Cut Method

##### Sets and Functions

##### Limits and Derivatives

- Intuitive Idea of Derivatives
- Introduction of Limits
- Introduction to Calculus
- Algebra of Limits
- Limits of Polynomials and Rational Functions
- Limits of Trigonometric Functions
- Introduction of Derivatives
- Algebra of Derivative of Functions
- Derivative of Polynomials and Trigonometric Functions
- Derivative Introduced as Rate of Change Both as that of Distance Function and Geometrically
- Limits of Logarithmic Functions
- Limits of Exponential Functions
- Derivative of Slope of Tangent of the Curve
- Theorem for Any Positive Integer n
- Graphical Interpretation of Derivative
- Derive Derivation of x^n

##### Mathematical Reasoning

##### Straight Lines

##### Introduction to Three-dimensional Geometry

##### Probability

##### Algebra

##### Relations and Functions

- Cartesian Product of Sets
- Relation
- Concept of Functions
- Some Functions and Their Graphs
- Algebra of Real Functions
- Ordered Pairs
- Equality of Ordered Pairs
- Pictorial Diagrams
- Graph of Function
- Pictorial Representation of a Function
- Exponential Function
- Logarithmic Functions
- Brief Review of Cartesian System of Rectanglar Co-ordinates

##### Sequence and Series

##### Linear Inequalities

##### Coordinate Geometry

##### Sets

- Sets and Their Representations
- The Empty Set
- Finite and Infinite Sets
- Equal Sets
- Subsets
- Power Set
- Universal Set
- Venn Diagrams
- Intrdouction of Operations on Sets
- Union Set
- Intersection of Sets
- Difference of Sets
- Complement of a Set
- Practical Problems on Union and Intersection of Two Sets
- Proper and Improper Subset
- Open and Close Intervals
- Operation on Set - Disjoint Sets
- Element Count Set

##### Conic Sections

- Sections of a Cone
- Concept of Circle
- Introduction of Parabola
- Standard Equations of Parabola
- Latus Rectum
- Introduction of Ellipse
- Relationship Between Semi-major Axis, Semi-minor Axis and the Distance of the Focus from the Centre of the Ellipse
- Special Cases of an Ellipse
- Eccentricity
- Standard Equations of an Ellipse
- Latus Rectum
- Introduction of Hyperbola
- Eccentricity
- Standard Equation of Hyperbola
- Latus Rectum
- Standard Equation of a Circle

##### Calculus

##### Complex Numbers and Quadratic Equations

##### Permutations and Combinations

- Fundamental Principles of Counting
- Permutations
- Combination
- Introduction of Permutations and Combinations
- Permutation Formula to Rescue and Type of Permutation
- Smaller Set from Bigger Set
- Derivation of Formulae and Their Connections
- Simple Applications of Permutations and Combinations
- Factorial N (N!) Permutations and Combinations

##### Mathematical Reasoning

##### Statistics and Probability

##### Principle of Mathematical Induction

#### notes

Suppose P (x, y) is an arbitrary point in the XY-plane and L is the given line. For the equation of L, we wish to construct a statement or condition for the point P that is true, when P is on L, otherwise false. Of course the statement is merely an algebraic equation involving the variables x and y. Now, we will discuss the equation of a line under different conditions.**Horizontal and vertical lines:**

If a horizontal line L is at a distance a from the x-axis then ordinate of every point lying on the line is either a or – a.Fig.

Therefore, equation of the line L is either y = a or y = – a. Choice of sign will depend upon the position of the line according as the line is above or below the y-axis. Similarly, the equation of a vertical line at a distance b from the y-axis is either x = b or x = – b.Fig.**Point-slope form:**

Suppose that `P_0 (x_0, y_0)` is a fixed point on a non-vertical line L, whose slope is m. Let P (x, y) be an arbitrary point on L. fig.

Then, by the definition, the slope of L is given by

m = `(y -y_0)/(x - x_0)` ,i.e., `y-y_0` = m`(x-x_0)` ...(1)

Since the point `P_0 (x_0 , y_0)` along with all points (x, y) on L satisfies (1) and no other point in the plane satisfies (1). Equation (1) is indeed the equation for the given line L. Thus, the point (x, y) lies on the line with slope m through the fixed point `(x_0, y_0)`, if and only if, its coordinates satisfy the equation ` y – y_0 = m (x – x_0)`

**Two-point form :**

Let the line L passes through two given points `P_1 (x_1, y_1)` and `P_2 (x_2, y_2)`. Let P (x, y) be a general point on L .Fig

The three points `P_1, P_2` and P are collinear, therefore, we have slope of `P_1` P = slope of `P_1P_2`.

i.e., `(y-y_1)/(x -x_1)`=`(y_2-y_1)/(x_2-x_1)` or

`y -y_1` = `(y_2-y_1)/(x_2-x_1)(x-x_1)`.

Thus, equation of the line passing through the points `(x_1, y_1)` and `(x_2, y_2)` is given by

`y -y_1` = `(y_2-y_1)/(x_2-x_1)(x-x_1)` ....(2)

**Slope-intercept form:**

Suppose a line L with slope m cuts the y-axis at a distance c from the origin Fig.

The distance c is called the yintercept of the line L. Obviously, coordinates of the point where the line meet the y-axis are

(0, c). Thus, L has slope m and passes through a fixed point (0, c). Therefore, by point-slope form, the equation of L is

y-c =m(x-0) or y =mx + c

Thus, the point (x, y) on the line with slope m and y-intercept c lies on the line if and only if y = mx +c ...(3)

Note that the value of c will be positive or negative according as the intercept is made on the positive or negative side of the y-axis, respectively.

**Intercept - form:**

Suppose a line L makes x-intercept a and y-intercept b on the axes. Obviously L meets x-axis at the point (a, 0) and y-axis at the point (0, b).Fig.

By two-point form of the equation of the line, we have

y - 0 =`(b-0)/(0-a)(x - a)` or ay = -bx +ab ,

i.e., `x/a+y/b=1`.

**Normal form :**

Suppose a non-vertical line is known to us with following data:

(i) Length of the perpendicular (normal) from origin to the line.

(ii) Angle which normal makes with the positive direction of x-axis.

Let L be the line, whose perpendicular distance from origin O be OA = p and the angle between the positive x-axis and OA be ∠XOA = ω. The possible positions of line L in the Cartesian plane are shown in the fig. Now, our purpose is to find slope of L and a point on it.

**Alternate method:**

The simplest form of the equation of a line is y = mx + c.

Again assuming F along x-axis and K along y-axis, we can take equation in the form

K = mF + c ... (1)

Equation (1) is satisfied by (32, 273) and (212, 373).

Therefore 273 = 32m + c ... (2)

and 373 = 212m + c ... (3)

Solving (2) and (3), we get

m = `5/9` and c =`2297/9`.

Putting the values of m and c in (1) ,we get

K =`5/9` F + `2297/9`

which is the required relation.K=0,(4) gives

F = -459.4.