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00051 MATH

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2022 - 2023
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1. For any complex number ๐’›, it is always true that |๐’›| is equal to:
(a) |๐‘ง|
(b) | − ๐‘ง|
(c) | − ๐‘ง|
(d) โœ” all of these
2. The numbers which can be written in the form of ๐’‘ , ๐’‘, ๐’’ ∈ ๐’ , ๐’’ ≠ ๐ŸŽ are :
(a) โœ”Rational number
(b) Irrational number
(c) Complex number
(d) Whole number
3. A decimal which has a finite numbers of digits in its decimal part is called______ decimal.
(a) โœ”Terminating
(b) Non-Terminating
(c) Recurring
(d) Non recurring
4. ๐Ÿ“. ๐Ÿ‘๐Ÿ‘๐Ÿ‘ …. Is
(a) Rational
(b) Irrational
(c) an integer
(d) a prime number
5. ๐… is
(a) Rational
(b) โœ” Irrational
(c) Natural number
(d) None 6. ๐Ÿ๐Ÿ ๐Ÿ• is
(a) โœ”Rational
(b) Irrational
(c) an integer
(d) a whole number
7. Multiplicative inverse of ′๐ŸŽ′ is
(a) 0
(b) any real number
(c) โœ” not defined
(d) 1 8.
If ๐’‚ is any non-zero real number, then multiplicative inverse is
(a) – ๐‘Ž
(b) โœ” 1 ๐‘Ž
(c) − 1 ๐‘Ž
(d) not defined
9. For all ๐’‚ ∈ , ๐’‚ = ๐’‚ is …. Property.
(a) โœ”Reflexive
(b) Symmetric
(c) Transitive
(d) Trichotomy
10. For all ๐’‚, ๐’ƒ ∈ , ๐’‚ = ๐’ƒ โŸน ๐’ƒ = ๐’‚ is called….. property.
(a) Reflexive
(b) โœ” Symmetric
(c) Transitive
(d) Trichotomy
11. Golden rule of fraction is that for ๐’Œ ≠ ๐ŸŽ, ๐’‚ ๐’ƒ =
(a) โœ” ๐‘˜๐‘Ž ๐‘˜๐‘
(b) ๐‘Ž๐‘ ๐‘™
(c) ๐‘˜๐‘Ž ๐‘
(d) ๐‘˜๐‘ ๐‘
12. The set {๐Ÿ, −๐Ÿ} possesses closure property ๐’˜. ๐’“. ๐’•
(a) ′ + ′
(b) โœ” ′ × ′
(c) ′ ÷ ′
(d) ′ − ′
13. If ๐’‚ < ๐‘ then
(a) ๐‘Ž < ๐‘
(b) 1 ๐‘Ž < 1 ๐‘
(c) โœ” 1 ๐‘Ž > 1 ๐‘
(d) ๐‘Ž − ๐‘ > 0
14. The additive identity in set of complex number is
(a) โœ”(0,0)
(b) (0,1)
(c) (1,0)
(d) (1,1)
15. The multiplicative identity of complex number is
(a) (0,0)
(b) (0,1)
(c) โœ” (1,0)
(d) (1,1)
16. The modulus of ๐’› = ๐’‚ + ๐’Š๐’ƒ is
(a) √๐‘Ž + ๐‘
(b) โœ”√๐‘Ž 2 + ๐‘2
(c) ๐‘Ž − ๐‘
(d) √๐‘Ž2 − ๐‘2 17.
๐’Š ๐Ÿ๐Ÿ‘ equals:
(a) โœ”๐‘–
(b) – ๐‘–
(c) 1
(d) -1
18. The multiplicative inverse of (๐Ÿ’, −๐Ÿ•) is:
(a) (− 4 65 , − 7 65 )
(b) (− 4 65 , 7 65 )
(c) ( 4 65 , − 7 65 )
(d) โœ”( 4 65 , 7 65 )
19. (๐ŸŽ, ๐Ÿ‘)(๐ŸŽ, ๐Ÿ“) =
(a) 15
(b) โœ”-15
(c) −8๐‘–
(d) 8๐‘– 20.
(−๐Ÿ) − ๐Ÿ๐Ÿ ๐Ÿ =
(a) ๐‘–
(b) โœ” – ๐‘–
(c) 1
(d) -1 21.
√๐Ÿ‘ is __________
(a) Rational
(b) โœ” Irrational
(c) Integer
(d) Prime 22.
Product √−๐Ÿ × √−๐Ÿ is equal to _____
(a) -2
(b) โœ”2
(c) 0
(d) 4
23. The imaginary part of the complex number ( , ๐’‚) is _________
(a) โœ”๐‘Ž
(b) ๐‘
(c) ๐‘–๐‘Ž
(d) None of these
24. If ๐’› = −๐Ÿ − ๐’Š then ๐’› =______
(a) (−1, −1)
(b) โœ”(−1,1)
(c) (1, −1)
(d) (1,1)
25. The property ๐Ÿ•. ๐Ÿ– + (−๐Ÿ•. ๐Ÿ–) = ๐ŸŽ is______
(a) Commutative
(b)‘.’ Inverse
(c) โœ” ‘ + ’ inverse
(d) Associative
26. If ๐’™ = ๐ŸŽ then multiplicative inverse of ๐’™ is
(a) 0
(b) 1
(c) 1 ๐‘ฅ
(d) โœ” None of these
27. (−๐’Š) ๐Ÿ๐Ÿ“ =_______
(a) 1
(b) -1
(c) โœ” ๐‘–
(d) – ๐‘– 28.
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1. If ๐’™ ∈ ๐‘ณ ∪ ๐‘ด then
(a) ๐‘ฅ ∉ ๐ฟ ๐‘œ๐‘Ÿ ๐‘ฅ ∉ ๐‘€
(b) ๐‘ฅ ∉ ๐ฟ ๐‘œ๐‘Ÿ ๐‘ฅ ∈ ๐‘€
(c) ๐‘ฅ ∈ ๐ฟ ๐‘œ๐‘Ÿ ๐‘ฅ ∉ ๐‘€
(d) โœ”๐‘ฅ ∈ ๐ฟ ๐‘œ๐‘Ÿ ๐‘ฅ ∈ ๐‘€
2. Total number of subsets that can be formed from the set {๐’™, ๐’š, ๐’›} is
(a) 1
(b) โœ” 8
(c) 5
(d)2
3. If ๐’™ ∈ ๐‘ฉ′ = ๐‘ผ − ๐‘ฉ then
(a) ๐‘ฅ ∈ ๐ต ๐‘Ž๐‘›๐‘‘ ๐‘ฅ ∈ ๐‘ˆ
(b) โœ”๐‘ฅ ∉ ๐ต ๐‘Ž๐‘›๐‘‘ ๐‘ฅ ∈ ๐‘ˆ
(c) ๐‘ฅ ∉ ๐ต ๐‘Ž๐‘›๐‘‘ ๐‘ฅ ∉ ๐‘ˆ
(d)๐‘ฅ ∈ ๐ต ๐‘Ž๐‘›๐‘‘ ๐‘ฅ ∉ ๐‘ˆ
4. ๐‘ณ ∪ ๐‘ด = ๐‘ณ ∩ ๐‘ด then ๐‘ณ is equal to
(a) โœ”๐‘€
(b) ๐ฟ
(c) ๐œ‘
(d) ๐‘€′
5. A set is a collection of objects which are
(a) Well defined
(b) โœ”Well defined and distinct
(c) identical
(d) not defined
6. The set of odd numbers between 1 and 9 are
(a) {1,3,5,7}
(b) {3,5,7,9}
(c) {1,3,5,7,9}
(d) โœ”{3,5,7}
7. Every recurring non terminating decimal represents
(a) โœ”๐‘„
(b) ๐‘„′
(c) ๐‘…
(d) None
8. A diagram which represents a set is called______
(a) โœ”Venn’s
(b) Argand
(c) Plane
(d) None
9. ๐‘น − {๐ŸŽ} is a group ๐’˜. ๐’“. ๐’• the binary operation
(a) +
(b) โœ” ×
(c) ÷
(d)− 10.
In a proposition if ๐’‘ → ๐’’ ๐’•๐’‰๐’†๐’ ๐’’ → ๐’‘ is called
(a) Inverse of ๐‘ → ๐‘ž
(b) โœ” converse of ๐‘ → ๐‘ž
(c) contrapositive of ๐‘ → ๐‘ž
(d) None 11.
If ๐‘จ and ๐‘ฉ are disjoint sets , then ๐‘จ ∩ ๐‘ฉ =
(a) 0
(b) 1
(c) 2
(d) โœ” ๐œ‘
12. ๐’‘ → ๐’’ is called converse of
(a) ~๐‘๐‘ž
(b) โœ” ๐‘ → ๐‘ž
(c) ๐‘ž → ๐‘ž
(d) ~๐‘ž →.
If ๐‘จ ⊆ ๐‘ฉ then (๐‘จ ∩ ๐‘ฉ) =
(a) โœ”(๐ด)
(b) (๐ต)
(c) (๐ด) + ๐‘›(๐ต)
(d) (๐ด). ๐‘›(๐ต)
14. Inverse of any element of a group is:
(a) Not unique
(b) โœ”unique
(c) has many inverses
(d) none of these
15. Every function is:
(a) โœ”Relation
(b) inverse function
(c) one to one
(d) none of these
16. The number of all subsets of a set having three elements is:
(a) 4
(b) 6
(c) โœ” 8
(d) 10
17. The graph of linear function is :
(a) Circle
( b) โœ”straight line
(c) parabola
(d) triangle
18. Identity element in (๐‘ช, . ) is:
(a) (0,0)
(b) (0,1)
(c) โœ” (1,0)
(d) (1,1)
19. Squaring a number is a:
(a) โœ”Unary operation
(b) binary operation
(c) relation
(d) Function
20. Which of the following is true:
(a) ๐‘ ⊂ ๐‘
(b) ๐‘ ⊂ ๐‘„
(c) ๐‘„ ⊂ ๐‘…
(d) โœ”all of these
21. Set of integers is a group ๐’˜. ๐’“. ๐’•
(a) โœ”Addition
(b) multiplication
(c) subtraction
(d) division
22. If ๐‘จ = ๐‹ then (๐‘จ) =
(a) Empty set
(b) {0}
(c) โœ” {๐œ‘}
(d) none of these
23. If ๐‘จ and ๐‘ฉ are disjoint sets then :
(a) โœ”๐ด ∩ ๐ต = ๐œ‘
(b) ๐ด ∩ ๐ต ≠ ๐œ‘
(c) ๐ด ⊂ ๐ต
(d) ๐ด − ๐ต = ๐œ‘
24. The set of non-zero real numbers ๐’˜. ๐’“. ๐’• multiplication is:
(a) Groupied
(b) Semi-group
(c) Monoied
(d) โœ” Group
25. Which of the following is not a binary operation :
(a) +
(b) ×
(c) โœ” √
(d) –
26. If ๐’š = √ , ๐’™ ≥ ๐ŸŽ is a function, then its inverse is:
(a) A line
(b) a parabola
(c) a point
(d) โœ” not a function
27. An onto function is also called:
(a) Injective
(b) โœ” Surjective
(c) Bijective
(d) Inverse
28. A (๐Ÿ − ๐Ÿ) function is also called:
(a) โœ”Injective
(b) Surjective
(c) Bijective
(d) Inverse
29. For the propositions ๐’‘ and ๐’’, (๐’‘ ∧ ๐’’) → ๐’‘ is:
(a) โœ”Tautology
(b) Absurdity
(c) contingency
(d) None of these
30. For the propositions ๐’‘ and , ๐’‘ → (๐’‘ ∨ ๐’’) is:
(a) โœ”Tautology
(b) Absurdity
(c) Contingency
(d) None of these
31. If set ๐‘จ has 2 elements and ๐‘ฉ has 4 elements , then number of elements in ๐‘จ × ๐‘ฉ is :
(a) 6
(b) โœ” 8
(c) 16
(d) None of these
32. Inverse of a line is :
(a) โœ”A line
(b) a parabola
(c) a point
(d) not defined
33. The function ๐’‡ = {(๐’™, ๐’š), ๐’š = ๐’™} is :
(a) โœ”Identity function
(b) Null function
(c) not a function
(d) similar function
34. If ๐’š = √๐’™, ๐’™ ≥ ๐ŸŽ is a function, then its inverse is :
(a) A line
(b) a parabola
(c) a point
(d) โœ” not defined
35. Truth set of a tautology is
(a) โœ”Universal set
(b) ๐œ‘
(c) True
(d) False
36. A compound proposition which is always true is called:
(a) โœ”Tautology
(b) contradiction
(c) absurdity
(d) contingency
37. A compound proposition which is always neither true nor false is called:
(a) Tautology
(b) contradiction
(c) absurdity
(d) โœ” contingency
38. A compound proposition which is always wrong is called:
(a) Tautology
(b) โœ” contradiction
(c) absurdity
(d) contingency
39. If ๐‘บ = { } , then order of set ๐‘บ is:
(a) โœ”0
(b) 1
(c) Infinite set
(d) not defined
40. The symbol which is used to denote negation of a proposition is
(a) โœ”~
(b) →
(c) ∧
(d) ∨
41. Which of the following is true:
(a) ๐œ‘ − ๐ด = ๐œ‘
(b) ๐ด ∪ ๐ด = ๐ด
(c) ๐ด ∩ ๐ด = ๐ด
(d) โœ”All of these
42. Which of the following is true:
(a) ๐ด ∪ ๐œ‘ = ๐ด
(b) ๐ด ∩ ๐œ‘ = ๐œ‘
(c) ๐ด − ๐œ‘ = ๐ด
(d) โœ”All of these
43. If ๐‘ฉ ⊆ ๐‘จ, then (๐‘ฉ − ๐‘จ) is equal to:
(a) (๐ด)
(b) (๐ต)
(c) (๐ด ∩ ๐ต)
(d) โœ” 0
1. A rectangular array of numbers enclosed by a square brackets is called:
(a) โœ”Matrix
(b) Row
(c) Column
(d) Determinant
2. The horizontal lines of numbers in a matrix are called:
(a) Columns
(b) โœ” Rows
(c) Column matrix
(d) Row matrix
3. The vertical lines of numbers in a matrix are called:
(a) โœ”Columns
(b) Rows
(c) Column matrix
(d) Row matrix
4. If a matrix A has ๐’Ž rows and ๐’ columns , then order of A is :
(a) โœ”๐‘š × ๐‘›
(b) ๐‘› × ๐‘š
(c) ๐‘š + ๐‘›
(d) ๐‘š๐‘›
5. The element ๐’‚๐’Š๐’‹ of any matrix A is present in:
(a) โœ”๐‘– ๐‘กโ„Ž row and ๐‘— ๐‘กโ„Ž column
(b)๐‘– ๐‘กโ„Ž column and ๐‘— ๐‘กโ„Ž row
(c) (๐‘– + ๐‘—)โ„Ž row and column
(d) (๐‘– + ๐‘—)โ„Ž row and column
6. A matrix A is called real if all ๐’‚๐’Š๐’‹ are
(a) โœ”Real numbers
(b) complex numbers
(c) 0
(d) 1
7. If a matrix A has only one row then it is called:
(a) โœ”Row vector
(b) Column vector
(c) square matrix
(d) Rectangle matrix
8. If a matrix A has only one column then it is called:
(a) Row vector
(b) โœ” Column vector
(c) square matrix
(d) Rectangle matrix
9. If a matrix A has same number of rows and columns then A is called:
(a) Row vector
(b) Column vector
(c) โœ”square matrix
(d) Rectangular matrix
10. If a matrix A has different number of rows and columns then A is called:
(a) Row vector
(b) Column vector
(c) square matrix
(d) โœ” Rectangular matrix
11. For the square matrix ๐‘จ = [๐’‚๐’Š๐’‹]×๐’ then ๐’‚๐Ÿ๐Ÿ, ๐’‚๐Ÿ๐Ÿ, ๐’‚๐Ÿ‘๐Ÿ‘…๐’‚๐’๐’ are:
(a) โœ”Main diagonal
(b) primary diagonal
(c) proceding diagonal
(d) secondary diagonal
12. For a square matrix ๐‘จ = [๐’‚๐’Š๐’‹]if all ๐’‚๐’Š๐’‹ = ๐ŸŽ, ๐’Š ≠ ๐’‹ and all ๐’‚๐’Š๐’‹ = ๐’Œ(๐’๐’๐’ − ๐’›๐’†๐’“๐’) for ๐’Š = ๐’‹ then A is called:
(a) Diagonal matrix
(b) โœ” Scalar Matrix
(c) Scalar Matrix
(d) Null matrix
13. For a square matrix ๐‘จ = [๐’‚๐’Š๐’‹]if all ๐’‚๐’Š๐’‹ = ๐ŸŽ, ๐’Š ≠ ๐’‹ and at least ๐’‚๐’Š๐’‹ ≠ ๐ŸŽ, ๐’Š = ๐’‹ then A is called:
(a) โœ”Diagonal matrix
(b) Scalar Matrix
(c) Scalar Matrix
(d) Null matrix
14. The matrix [๐Ÿ•] is :
(a) Square matrix
(b) row matrix
(c) column matrix
(d) โœ” all of these
15. If a matrix of order ๐’Ž × ๐’ then the matrix of order ๐’ × ๐’Ž is :
(a) โœ”Transpose of A
(b) Inverse of A
(c) Main diagonal of A
(d) Adjoint of A
16. For any two matrices A and B ,(๐‘จ + ๐‘ฉ) ๐’• =
(a) ๐ต ๐‘ก๐ด ๐‘ก
(b) ๐ด ๐‘ก๐ต ๐‘ก
(c) โœ”๐ด ๐‘ก + ๐ต๐‘ก
(d) ๐ต ๐‘ก + ๐ด๐‘ก
17. Let A be a matrix and ๐’ is an integer then ๐‘จ + ๐‘จ + ๐‘จ + โ‹ฏ to ๐’ terms
(a) โœ”๐‘›๐ด
(b) ๐‘› + ๐ด
(c) ๐‘› − ๐ด
(d) ๐ด ๐‘›
18. If order of ๐‘จ is ๐’Ž × ๐’ and order of B is ๐’ × ๐’’ then order of AB is
(a) ๐‘š × ๐‘›
(b) ๐‘› × ๐‘š
(d) ๐‘› × ๐‘ž
(d) โœ”๐‘š ×
19. If ๐’‚๐’‹๐’… ๐‘จ = [ −๐Ÿ −๐Ÿ ๐Ÿ‘ ๐Ÿ’ ] then matrix ๐‘จ is
(a) [ −1 −2 4 3 ]
(b) [ 4 2 3 −1]
(c) [ −4 3 −2 −1]
(d) โœ” [ 4 2 −3 −1]
20. If ๐‘จ is non-singular matrix then ๐‘จ −๐Ÿ =
(a) โœ” 1 |๐ด| ๐‘Ž๐‘‘๐‘—๐ด
(b) − 1 |๐ด| ๐‘Ž๐‘‘๐‘—๐ด
(c) |๐ด| ๐‘Ž๐‘‘๐‘—๐ด
(d) 1 |๐ด|๐‘Ž๐‘‘๐‘—๐ด
21. If ๐‘จ๐‘ฟ = ๐‘ฉ then ๐‘ฟ is equal to:
(a) ๐ด๐ต
(b) โœ” ๐ด −1๐ต
(c) ๐ต −1๐ด
(d) ๐ต๐ด
22. Inverse of a matrix exists if it is:
(a) Singular
(b) Null
(c) Rectangular
(d) โœ” Non-singular
23. Which of the property does not hold matrix multiplication?
(a) Associative
(b) โœ” Commutative
(c) Closure
(d) Inverse
24. For any matrix A , it is always true that
(a) ๐ด = ๐ด๐‘ก
(b) – ๐ด = ๐ดฬ…
(c) โœ”|๐ด| = |๐ด๐‘ก |
(d) ๐ด −1 = 1 ๐ด
25. If all entries of a square matrix of order ๐Ÿ‘ is multiplied by ๐’Œ, then value of |๐’Œ๐‘จ| is equal to:
(a) ๐‘˜|๐ด|
(b) ๐‘˜ 2 |๐ด|
(c) โœ”๐‘˜ 3 |๐ด|
(d) |๐ด|
26. For a non-singular matrix it is true that :
(a) (๐ด −1) −1 = ๐ด
(b) (๐ด ) ๐‘ก = ๐ด
(c) ๐ดฬฟ= ๐ด
(d) โœ”all of these
27. For any non-singular matrices A and B it is true that:
(a) (๐ด๐ต) −1 = ๐ต−1๐ด −1
(b) (๐ด๐ต) ๐‘ก = ๐ต๐‘ก๐ด ๐‘ก
(c) ๐ด๐ต ≠ ๐ต๐ด
(d) โœ” all of these
28. A square matrix ๐‘จ = [๐’‚๐’Š๐’‹] for which ๐’‚๐’Š๐’‹ = ๐ŸŽ, ๐’Š > ๐‘— then A is called:
(a) โœ”Upper triangular
(b) Lower triangular
(c) Symmetric
(d) Hermitian
29. A square matrix ๐‘จ = [๐’‚๐’Š๐’‹] for which ๐’‚๐’Š๐’‹ = ๐ŸŽ, ๐’Š < ๐‘— then A is called:
(a) Upper triangular
(b) โœ”Lower triangular
(c) Symmetric
(d) Hermitian
30. Any matrix A is called singular if:
(a) โœ”|๐ด| = 0
(b) |๐ด| ≠ 0
(c) ๐ด ๐‘ก = ๐ด
(d) ๐ด๐ด−1 = ๐ผ
31. Which of the following Sets is a field.
(a) R
(b) Q
(c) C
(d) โœ”all of these
32. Which of the following Sets is not a field.
(a) R
(b) Q
(c) C
(d) โœ”Z
33. A square matrix A is symmetric if:
(a) โœ”๐ด ๐‘ก = ๐ด
(b) ๐ด ๐‘ก = −๐ด
(c) (๐ด) ๐‘ก = ๐ด
(d) (๐ด) ๐‘ก = −๐ด
34. A square matrix A is skew symmetric if:
(a) ๐ด ๐‘ก = ๐ด
(b) โœ” ๐ด ๐‘ก = −๐ด
(c) (๐ด) ๐‘ก = ๐ด
(d) (๐ด) ๐‘ก = −๐ด
35. A square matrix A is Hermitian if:
(a) ๐ด ๐‘ก = ๐ด
(b) ๐ด ๐‘ก = −๐ด
(c) โœ”(๐ด) ๐‘ก = ๐ด
(d) (๐ด) ๐‘ก = −๐ด
36. A square matrix A is skew- Hermitian if:
(a) ๐ด ๐‘ก = ๐ด
(b) ๐ด ๐‘ก = −๐ด
(c) (๐ด) ๐‘ก = ๐ด
(d) โœ”(๐ด) ๐‘ก = −๐ด
37. The main diagonal elements of a skew symmetric matrix must be:
(a) 1
(b) โœ” 0
(c) any non-zero number
(d) any complex number
38. The main diagonal elements of a skew hermitian matrix must be:
(a) 1
(b) โœ” 0
(c) any non-zero number
(d) any complex number
39. In echelon form of matrix, the first non zero entry is called:
(a) โœ”Leading entry
(b) first entry
(c) preceding entry
(d) Diagonal entry
40. The additive inverse of a matrix exist only if it is:
(a) Singular
(b) non singular
(c) null matrix
(d) โœ” any matrix of order ๐‘š × ๐‘›
41. The multiplicative inverse of a matrix exist only if it is:
(a) Singular
(b) โœ” non singular
(c) null matrix
(d) any matrix of order ๐‘š × ๐‘›
42. The number of non zero rows in echelon form of a matrix is called:
(a) Order of matrix
(b) Rank of matrix
(c) leading
(d) leading row
43. If A is any square matrix then ๐‘จ + ๐‘จ๐’• is a
(a) โœ”Symmetric
(b) skew symmetric
(c) hermitian
(d) skew hermitian
44. If A is any square matrix then ๐‘จ − ๐‘จ๐’• is a
(a) Symmetric
(b) โœ”skew symmetric
(c) hermitian
(d) skew hermitian
45. If A is any square matrix then ๐‘จ + (๐‘จ) ๐’• is a
(a) Symmetric
(b) skew symmetric
(c) โœ” hermitian
(d) skew hermitian
46. If A is any square matrix then ๐‘จ + (๐‘จ) ๐’• is a
(a) Symmetric
(b) skew symmetric
(c) hermitian
(d) โœ” skew hermitian
47. If A is symmetric (Skew symmetric), then ๐‘จ ๐Ÿ must be
(a) Singular
(b) non singular
(c) โœ”symmetric
(d) non trivial solution
48. In a homogeneous system of linear equations , the solution (0,0,0) is:
(a) โœ”Trivial solution
(b) non trivial solution
(c) exact solution
(d) anti symmetric
49. If ๐‘จ๐‘ฟ = ๐‘ถ then ๐‘ฟ =
(a) ๐ผ
(b) โœ” ๐‘‚
(c) ๐ด −1
(d) Not possible
50. If the system of linear equations have no solution at all, then it is called a/an
(a) Consistent system
(b)โœ” Inconsistent system
(c) Trivial System
(d) Non Trivial System
51. The value of ๐€ for which the system ๐’™ + ๐Ÿ๐’š = ๐Ÿ’; ๐Ÿ๐’™ + ๐€๐’š = −๐Ÿ‘ does not possess the unique solution;
(a) โœ”4
(b) -4
(c) ±4
(d) any real number
52. If the system ๐’™ + ๐Ÿ๐’š = ๐ŸŽ; ๐Ÿ๐’™ + ๐€๐’š = ๐ŸŽ has non-trivial solution, then ๐€ is:
(a) โœ”4
(b) -4
(c) ±4
(d) any real number
53. The inverse of unit matrix is:
(a) โœ”Unit
(b) Singular
(c) Skew Symmetric
(d) rectangular
54. Transpose of a row matrix is:
(a) Diagonal matrix
(b) zero matrix
(c) โœ” column matrix
(d) scalar matrix
55. If | ๐’™ ๐Ÿ’ ๐Ÿ“ ๐Ÿ๐ŸŽ| = ๐ŸŽ ⇒ ๐’™ equals
(a) โœ”2
(b) 4
(c) 6
(d) 8
1. The equation ๐’‚๐’™๐Ÿ + ๐’ƒ๐’™ + ๐’„ = ๐ŸŽ will be quadratic if:
(a) ๐‘Ž = 0, ๐‘ ≠ 0
(b) โœ” ๐‘Ž ≠ 0
(c) ๐‘Ž = ๐‘ = 0
(d) ๐‘ = any real number
2. Solution set of the equation ๐’™ ๐Ÿ − ๐Ÿ’๐’™ + ๐Ÿ’ = ๐ŸŽ is:
(a) {2, −2}
(b) โœ” {2}
(c) {−2}
(d) {4, −4}
3. The quadratic formula for solving the equation ๐’‚๐’™๐Ÿ + ๐’ƒ๐’™ + ๐’„ = ๐ŸŽ; ๐’‚ ≠ ๐ŸŽ is
(a) โœ”๐‘ฅ = −๐‘±√๐‘ 2−4๐‘Ž๐‘ 2๐‘Ž
(b) ๐‘ฅ = −๐‘±√๐‘Ž2−4๐‘Ž๐‘ 2๐‘
(c) ๐‘ฅ = −๐‘Ž±√๐‘2−4๐‘Ž๐‘ 2
(d) None of these
4. To convert ๐’‚๐’™๐Ÿ๐’ + ๐’ƒ๐’™๐’ + ๐’„ = (๐’‚ ≠ ๐ŸŽ) into quadratic form , the correct substitution is:
(a) โœ”๐‘ฆ = ๐‘ฅ๐‘›
(b) ๐‘ฅ = ๐‘ฆ๐‘›
(c) ๐‘ฆ = ๐‘ฅ−๐‘›
(d) ๐‘ฆ = 1 ๐‘ฅ
5. The equation in which variable occurs in exponent , called:
(a) Exponential function
(b) Quadratic equation
(c) Reciprocal equation
(d) โœ”Exponential equation
6. To convert ๐Ÿ’ ๐Ÿ+๐’™ + ๐Ÿ’๐Ÿ−๐’™ = ๐Ÿ๐ŸŽ into quadratic , the substitution is:
(a) ๐‘ฆ = ๐‘ฅ1−๐‘ฅ
(b) ๐‘ฆ = 41+๐‘ฅ
(c) ๐‘ฆ = 4๐‘ฅ
(d) ๐‘ฆ = 4−๐‘ฅ
7. The equations involving redical expressions of the variable are called:
(a) Reciprocal equations
(b) โœ” Redical equations
(c) Quadratic functions
(d) exponential equations
8. The cube roots of unity are :
(a) โœ”1, −1+√3๐‘– 2 , −1+√3๐‘– 2
(b) 1, 1+√3๐‘– 2 , 1+√3๐‘– 2
(c) −1, −1+√3๐‘– 2 , −1+√3๐‘– 2
(d) −1, 1+√3๐‘– 2 , 1+√3๐‘– 2
9. Sum of all cube roots of 64 is :
(a) โœ”0
(b) 1
(c) 64
(d) -64
10. Product of cube roots of -1 is:
(a) 0
(b) -1
(c) โœ”1
(d) None
11. ๐Ÿ๐Ÿ”๐Ž๐Ÿ– + ๐Ÿ๐Ÿ”๐’˜๐Ÿ’ =
(a) 0
(b) โœ” -16
(c) 16
(d) -1 9
The sum of all four fourth roots of unity is:
(a) Unity
(b) โœ”0
(c) -1
(d) None
13. The product of all four fourth roots of unity is:
(a) Unity
(b) 0
(c) โœ”-1
(d) None
14. The sum of all four fourth roots of 16 is:
(a) 16
(b) -16
(c) โœ” 0
(d) 1
15. The complex cube roots of unity are………………. each other.
(a) Additive inverse
(b) Equal to
(c) โœ”Conjugate
(d) None of these
16. The complex cube roots of unity are………………. each other.
(a) Multiplicative inverse
(b) reciprocal
(c) square
(d) โœ”None of these
17. The complex fourth roots of unity are ……. of each other.
(a) โœ”Additive inverse
(b) equal to
(c) square of
(d) None of these
18. If sum of all cube roots of unity is equal to ๐’™ ๐Ÿ + , then ๐’™ is equal to:
(a) −1
(b) 0
(c) โœ”±๐‘–
(d) 1
19. If product of all cube roots of unity is equal to ๐’‘ ๐Ÿ + , then ๐’‘ is equal to:
(a) −1
(b) โœ” 0
(c) ±๐‘–
(d) 1
20. The expression ๐’™ ๐Ÿ + ๐Ÿ ๐’™ − ๐Ÿ‘ is polynomial of degree:
(a) 2
(b) 3
(c) 1
(d) โœ” not a polynomial
21. If (๐’™) is divided by ๐’™ − ๐’‚ , then dividend = (Divisor)(…….)+ Remainder.
(a) Divisor
(b) Dividend
(c) โœ” Quotient
(d) ๐‘“
22. If (๐’™) is divided by ๐’™ − ๐’‚ by remainder theorem then remainder is:
(a) โœ” (๐‘Ž)
(b) (−๐‘Ž)
(c) (๐‘Ž) + ๐‘…
(d) ๐‘ฅ − ๐‘Ž = ๐‘…
23. The polynomial (๐’™ − ๐’‚) is a factor of (๐’™) if and only if
(a) โœ” (๐‘Ž) = 0
(b) (๐‘Ž) = ๐‘…
(c) Quotient = ๐‘…
(d) ๐‘ฅ = −๐‘Ž
24. ๐’™ − ๐Ÿ is a factor of ๐’™ ๐Ÿ − ๐’Œ๐’™ + ๐Ÿ’, if ๐’Œ is:
(a) 2
(b) โœ” 4
(c) 8
(d) -4
25. If ๐’™ = −๐Ÿ is the root of ๐’Œ๐’™๐Ÿ’ − ๐Ÿ๐Ÿ‘๐’™ ๐Ÿ + ๐Ÿ‘๐Ÿ” = ๐ŸŽ, then ๐’Œ =
(a) 2
(b) -2
(c) 1
(d) โœ” -1
26. ๐’™ + ๐’‚ is a factor of ๐’™ ๐’ + ๐’‚๐’ when ๐’ is
(a) Any integer
(b) any positive integer
(c) โœ” any odd integer
(d) any real number
27. ๐’™ − ๐’‚ is a factor of ๐’™ ๐’ − ๐’‚๐’ when ๐’ is
(a) โœ” Any integer
(b) any positive integer
(c) any odd integer
(d) any real number
28. Sum of roots of ๐’‚๐’™๐Ÿ − ๐’ƒ๐’™ − ๐’„ = ๐ŸŽ is (๐’‚ ≠ ๐ŸŽ)
(a) โœ” ๐‘ ๐‘Ž
(b) – ๐‘ ๐‘Ž
(c) ๐‘ ๐‘Ž
(d) – ๐‘ ๐‘Ž
29. Sum of roots of ๐’‚๐’™๐Ÿ − ๐’ƒ๐’™ − ๐’„ = ๐ŸŽ is (๐’‚ ≠ ๐ŸŽ)
(a) ๐‘ ๐‘Ž
(b) – ๐‘ ๐‘Ž
(c) ๐‘ ๐‘Ž
(d) โœ” – ๐‘ ๐‘Ž
30. If 2 and -5 are roots of a quadratic equation , then equation is:
(a) ๐‘ฅ 2 − 3๐‘ฅ − 10 = 0
(b) ๐‘ฅ 2 − 3๐‘ฅ + 10 = 0
(c) โœ” ๐‘ฅ 2 + 3๐‘ฅ − 10 = 0
(d) ๐‘ฅ 2 + 3๐‘ฅ + 10 = 0
31. If ๐œถ and ๐œท are the roots of ๐Ÿ‘๐’™๐Ÿ − ๐Ÿ๐’™ + ๐Ÿ’ = ๐ŸŽ, then the value of ๐œถ + ๐œท is:
(a) โœ” 2 3
(b) − 2 3
(c) 4 3
(d) − 4 3
32. If roots of ๐’‚๐’™๐Ÿ + ๐’ƒ๐’™ + ๐’„ = ๐ŸŽ, (๐’‚ ≠ ๐ŸŽ) are real , then
(a) Disc≥ 0
(b) Disc< 0
(c) Disc≠ 0
(d) Disc≤ 0
33. If roots of ๐’‚๐’™๐Ÿ + ๐’ƒ๐’™ + ๐’„ = ๐ŸŽ, (๐’‚ ≠ ๐ŸŽ) are complex , then
(a) โœ”Disc≥ 0
(b) โœ” Disc< 0
(c) Disc≠ 0
(d) Disc≤ 0
34. If roots of ๐’‚๐’™๐Ÿ + ๐’ƒ๐’™ + ๐’„ = ๐ŸŽ, (๐’‚ ≠ ๐ŸŽ) are equal , then
(a) โœ”Disc= 0
(b) Disc< 0
(c) Disc≠ 0
(d) None of these
35. Graph of quadratic equation is:
(a) Straight line
(b) Circle
(c) square
(d) โœ”Parabola
36. ๐Ž๐Ÿ๐Ÿ– + ๐Ž๐Ÿ๐Ÿ— + ๐Ÿ =
(a) โœ”0
(b) 1
(c) -1
(d) ๐œ”
37. Synthetic division is a process of:
(a) Addition
(b) multiplication
(c) subtraction
(d) โœ” division
38. Degree of quadratic equation is:
(a) 0
(b)1
(c) โœ”2
(d) 3
39. Basic techniques for solving quadratic equations are
(a) 1
(b) 2
(c) โœ”3
(d) 4
40. ๐Ÿ๐Ÿ”๐Ž๐Ÿ’ + ๐Ÿ๐Ÿ”๐Ž๐Ÿ– =
(a) 0
(b) โœ” -16
(c) 16
(d) -1
1. An open sentence formed by using sign of “ = ” is called a/an
(a) โœ”Equation
(b) Formula
(c) Rational fraction
(d) Theorem
2. If an equation is true for all values of the variable, then it is called:
(a) a conditional equation
(b) โœ” an identity
(c) proper rational fraction
(d) All of these
3. (๐’™ + ๐Ÿ‘)(๐’™ + ๐Ÿ’) = ๐’™๐Ÿ + ๐Ÿ•๐’™ + ๐Ÿ๐Ÿ is a/an:
(a) Conditional equation
(b) โœ”an identity
(c) proper rational fraction
(d) a formula
4. The quotient of two polynomials (๐’™) ๐‘ธ(๐’™) , ๐‘ธ(๐’™) ≠ ๐ŸŽ is called :
(a) โœ”Rational fraction
(b) Irrational fraction
(c) Partial fraction
(d) Proper fraction
5. A fraction (๐’™) ๐‘ธ(๐’™) , ๐‘ธ(๐’™) ≠ ๐ŸŽ is called proper fraction if :
(a) โœ”Degree of (๐‘ฅ) < Degree of ๐‘„(๐‘ฅ)
(b) Degree of (๐‘ฅ) = Degree of ๐‘„(๐‘ฅ)
(c) Degree of (๐‘ฅ) > Degree of ๐‘„(๐‘ฅ)
(d) Degree of (๐‘ฅ) ≥ Degree of ๐‘„(๐‘ฅ)
6. A fraction (๐’™) ๐‘ธ(๐’™) , ๐‘ธ(๐’™) ≠ ๐ŸŽ is called proper fraction if :
(a) Degree of (๐‘ฅ) < Degree of ๐‘„(๐‘ฅ)
(b) Degree of (๐‘ฅ) = Degree of ๐‘„(๐‘ฅ)
(c) Degree of (๐‘ฅ) > Degree of ๐‘„(๐‘ฅ)
(d) โœ” Degree of (๐‘ฅ) ≥ Degree of ๐‘„(๐‘ฅ)
7. A mixed form of fraction is :
(a) An integer+ improper fraction
(b) a polynomial+improper fraction
(c) โœ”a polynomial+proper fraction
(d) a polynomial+rational fraction
8. When a rational fraction is separated into partial fractions, then result is always :
(a) A conditional equations
(b) โœ”an identity
(c) a partial fraction
(d) an improper fraction
9. The number of Partial fraction of ๐’™ ๐Ÿ‘ (๐’™+๐Ÿ)(๐’™๐Ÿ−๐Ÿ)are:
(a) 2
(b) 3
(c) โœ”4
(d) None of these
10. The number of Partial fraction of ๐’™ ๐Ÿ“ (๐’™+๐Ÿ)(๐’™๐Ÿ−๐Ÿ’)are:
(a) 2
(b) 3
(c) 4
(d) โœ” 6
11. Partial fractions of ๐Ÿ ๐’™ ๐Ÿ−๐Ÿ are:
(a) 1 2(๐‘ฅ−1) + 1 2(๐‘ฅ+1)
(b) โœ” 1 2(๐‘ฅ−1) − 1 2(๐‘ฅ+1)
(c) − 1 2(๐‘ฅ−1) + 1 2(๐‘ฅ+1)
(d) − 1 2(๐‘ฅ−1) − 1 2(๐‘ฅ+1)
12. Conditional equation ๐Ÿ๐’™ + ๐Ÿ‘ = ๐ŸŽ holds when ๐’™ is equal to:
(a) โœ”− 3 2
(b) 3 2
(c) 1 3
(d) 1
13. Which is a reducible factor:
(a) ๐‘ฅ 3 − 6๐‘ฅ2 + 8๐‘ฅ
(b) ๐‘ฅ 2 + 16๐‘ฅ
(c) ๐‘ฅ 2 + 5๐‘ฅ – 6
(d) โœ”all of these
14. A quadratic factor which cannot written as a product of linear factors with real coefficients is called:
(a) โœ”An irreducible factor
(b) reducible factor
(c) an irrational factor
(d) an improper factor
15. ๐Ÿ—๐’™๐Ÿ ๐’™ ๐Ÿ‘−๐Ÿ is an
(a) Improper fraction
(b) โœ” Proper fraction
(c) Polynomial
(d) equation
1. An arrangement of numbers according to some definite rule is called:
(a) โœ”Sequence
(b) Combination
(c) Series
(d) Permutation
2. A sequence is also known as:
(a) Real sequence
(b) โœ”Progression
(c) Arrangement
(d) Complex sequence
3. A sequence is function whose domain is
(a) ๐‘
(b) ๐‘
(c) ๐‘„
(d) โœ” ๐‘…
4. As sequence whose range is ๐‘น ๐’Š. ๐’†., set of real numbers is called:
(a) โœ”Real sequence
(b) Imaginary sequence
(c) Natural sequence
(d) Complex sequence
5. If ๐’‚๐’ = {๐’ + (−๐Ÿ) ๐’}, then ๐’‚๐Ÿ๐ŸŽ =
(a) 10
(b) โœ” 11
(c) 12
(d) 13
6. The last term of an infinite sequence is called :
(a) ๐‘›๐‘กโ„Ž term
(b) ๐‘Ž๐‘›
(c) last term
(d) โœ” does not exist
7. The next term of the sequence ๐Ÿ, ๐Ÿ, ๐Ÿ๐Ÿ, ๐Ÿ’, … is
(a) โœ”112
(b) 120
(c) 124
(d) None of these
8. A sequence {๐’‚๐’} in which ๐’‚๐’ − ๐’‚๐’−๐Ÿ is the same number for all ๐’ ∈ ๐‘ต, > 1 is called:
(a) โœ”A.P
(b) G.P
(c) H.P
(d) None of these
9. ๐’๐’•๐’‰ term of an A.P is ๐Ÿ‘๐’ − ๐Ÿ then 10th term is :
(a) 9
(b) โœ” 29
(c) 12
(d) cannot determined
10. ๐’๐’•๐’‰ term of the series ( ๐Ÿ‘ ) ๐Ÿ + (๐Ÿ“ ๐Ÿ ) ๐Ÿ + (๐Ÿ• ๐Ÿ‘ ) ๐Ÿ + โ‹ฏ
(a) โœ” ( 2๐‘›−1 3 ) 2
(b) ( 2๐‘›−1 3 ) 2
(c) ( 2๐‘› 3 ) 2
(d) cannot determined
11. If ๐’‚๐’−๐Ÿ, ๐’‚๐’, ๐’‚๐’+๐Ÿ are in A.P, then ๐’‚๐’ is
(a) โœ”A.M
(b) G.M
(c) H.M
(d) Mid point
12. Arithmetic mean between ๐’„ and ๐’… is:
(a) โœ” ๐‘+๐‘‘ 2
(b) ๐‘+๐‘‘ 2๐‘๐‘‘
(c) 2๐‘๐‘‘ ๐‘+๐‘‘
(d) 2 ๐‘+๐‘‘
13. The arithmetic mean between √๐Ÿ and ๐Ÿ‘√๐Ÿ is:
(a) 4√2
(b) โœ” 4 √2
(c) √2
(d) none of these
14. The sum of terms of a sequence is called:
(a) Partial sum
(b) โœ” Series
(c) Finite sum
(d) none of these
15. Forth partial sum of the sequence {๐’ } is called:
(a) 16
(b) โœ” 1+4+9+16
(c) 8
(d) 1+2+3+4
16. Sum of ๐’ −term of an Arithmetic series ๐‘บ๐’ is equal to:
(a) โœ” ๐‘› 2 [2๐‘Ž + (๐‘› − 1)]
(b) ๐‘› 2 [๐‘Ž + (๐‘› − 1)]
(c) ๐‘› 2 [2๐‘Ž + (๐‘› + 1)]
(d) ๐‘› 2 [2๐‘Ž + ๐‘™]
17. For any ๐‘ฎ. ๐‘ท., the common ratio ๐’“ is equal to:
(a) ๐‘Ž๐‘› ๐‘Ž๐‘›+1
(b) ๐‘Ž๐‘›−1 ๐‘Ž๐‘›
(c) โœ” ๐‘Ž๐‘› ๐‘Ž๐‘›−1
(d) ๐‘Ž๐‘›+1 − ๐‘Ž๐‘›, ๐‘› ∈ ๐‘, ๐‘› > 1
18. No term of a ๐‘ฎ. ๐‘ท., is:
(a) โœ”0
(b) 1
(c) negative
(d) imaginary number
19. The general term of a ๐‘ฎ. ๐‘ท., is :
(a) โœ”๐‘Ž๐‘› = ๐‘Ž๐‘Ÿ๐‘›−1
(b) ๐‘Ž๐‘› = ๐‘Ž๐‘Ÿ๐‘›
(c) ๐‘Ž๐‘› = ๐‘Ž๐‘Ÿ๐‘›+1
(d) None of these
20. The sum of infinite geometric series is valid if
(a) |๐‘Ÿ| > 1
(b) |๐‘Ÿ| = 1
(c) |๐‘Ÿ| ≥ 1
(d) โœ” |๐‘Ÿ| < 1
21. For the series ๐Ÿ + ๐Ÿ“ + ๐Ÿ๐Ÿ“ + ๐Ÿ๐Ÿ๐Ÿ“ + โ‹ฏ + ∞ , the sum is (a) -4
(b) 4
(c) 1−5๐‘› −4
(d) โœ” not defined
22. An infinite geometric series is convergent if
(a) |๐‘Ÿ| > 1
(b) |๐‘Ÿ| = 1
(c) |๐‘Ÿ| ≥ 1
(d) โœ” |๐‘Ÿ| < 1
23. An infinite geometric series is divergent if
(a) |๐‘Ÿ| < 1
(b) |๐‘Ÿ| ≠ 1
(c) ๐‘Ÿ = 0
(dโœ”) |๐‘Ÿ| > 1
24. If sum of series is defined then it is called:
(a) โœ”Convergent series
(b) Divergent series
(c) finite series
(d) Geometric series
25. If sum of series is not defined then it is called:
(a) Convergent series
(b) โœ” Divergent series
(c) finite series
(d) Geometric series
26. The interval in which series ๐Ÿ + ๐Ÿ๐’™ + ๐Ÿ’๐’™๐Ÿ + ๐Ÿ–๐’™๐Ÿ‘ + โ‹ฏ is convergent if :
(a) −2 < ๐‘ฅ < 2
(b) โœ” − 1 2 < ๐‘ฅ < 1 2
(c) |2๐‘ฅ| > 1
(d) |๐‘ฅ| < 1
27. If the reciprocal of the terms a sequence form an ๐‘จ. ๐‘ท., then it is called:
(a) โœ”๐ป. ๐‘ƒ
(b) ๐บ. ๐‘ƒ
(c) ๐ด. ๐‘ƒ
(d) sequence
28. The ๐’๐’•๐’‰ term of ๐Ÿ , ๐Ÿ ๐Ÿ“ , ๐Ÿ ๐Ÿ– , … is
(a) โœ” 1 3๐‘›−1
(b) 3๐‘› – 1
(c) 2๐‘› + 1
(d) 1 3๐‘›+1
29. Harmonic mean between ๐Ÿ and ๐Ÿ– is:
(a) โœ”5
(b) 16 5
(c) ±4
(d) 5 16
30. If ๐‘จ, ๐‘ฎ and ๐‘ฏ are Arithmetic , Geometric and Harmonic means between two positive numbers then
(a) ๐บ 2 = ๐ด๐ป
(b) โœ”๐ด, ๐บ, ๐ป ๐‘Ž๐‘Ÿ๐‘’ ๐‘–๐‘› ๐บ. ๐‘ƒ
(c) ๐ด > ๐บ > ๐ป
(d) all of these
31. If ๐‘จ, ๐‘ฎ and ๐‘ฏ are Arithmetic , Geometric and Harmonic means between two negative numbers then
(a) ๐บ 2 = ๐ด๐ป
(b) ๐ด, ๐บ, ๐ป ๐‘Ž๐‘Ÿ๐‘’ ๐‘–๐‘› ๐บ. ๐‘ƒ
(c) ๐ด < ๐บ < ๐ป
(d) โœ”all of these
32. If ๐’‚ and ๐’ƒ are two positive number then
(a) ๐ด < ๐บ < ๐ป
(b) โœ” ๐ด > ๐บ > ๐ป
(c) ๐ด = ๐บ = ๐ป
(d) ๐ด ≥ ๐บ ≥ ๐ป
33. If ๐’‚ and ๐’ƒ are two negative number then
(a) โœ”๐ด < ๐บ < ๐ป
(b) ๐ด > ๐บ > ๐ป
(c) ๐ด = ๐บ = ๐ป
(d) ๐ด ≥ ๐บ ≥ ๐ป
34. If ๐’‚ ๐’+๐Ÿ+๐’ƒ๐’+๐Ÿ ๐’‚๐’+๐’ƒ๐’ is A.M between ๐’‚ and ๐’ƒ then ๐’ is equal to:
(a) โœ”0
(b) -1
(c) 1
(d) 1 2
35. If ๐’‚ ๐’+๐’ƒ๐’ ๐’‚๐’−๐Ÿ+๐’ƒ๐’−๐Ÿ is G.M between ๐’‚ and ๐’ƒ then ๐’ is equal to:
(a) 0
(b) -1
(c) 1
(d) โœ” 1 2
36. If ๐’‚ ๐’+๐Ÿ+๐’ƒ๐’+๐Ÿ ๐’‚๐’+๐’ƒ๐’ is H.M between ๐’‚ and ๐’ƒ then ๐’ is equal to:
(a) 0
(b) โœ” -1
(c) 1
(d) 1 2
37. If ๐‘บ๐’ = (๐’ + ๐Ÿ) , then ๐‘บ๐Ÿ๐’ is equal to:
(a) 2๐‘› + 1
(b) โœ” 4๐‘›2 + 4๐‘› + 1
(c) (2๐‘› − 1) 2
(d) cannot be determined
38. ∑ ๐’ ๐Ÿ‘ =
(a) (๐‘›+1)2
(b) (๐‘›+1)(๐‘›+2) 6
(c) โœ” ๐‘› 2(๐‘›+1) 2 4
(d) (๐‘›+1) 2
1. ๐Ÿ๐ŸŽ๐‘ท๐Ÿ‘=
(a) 6890
(b) 6810
(c) โœ”6840
(d) 6880
2. If ๐’๐‘ท๐Ÿ=30 then ๐’ =
(a) 4
(b) 5
(c) โœ”6
(d) 10
3. The number of diagonals in 10-sided figure is
(a) 10
(b) 10๐ถ2
(c) โœ”10๐ถ2 – 10
(d) 45 4. ๐’๐‘ช๐ŸŽ=
(a) 0
(b) โœ” 1
(c) ๐‘›
(d) ๐‘›!
5. How many arrangement of the word “MATHEMATICS” can be made
(a) 11!
(b) ( 11 3,2,1,1,1,1,1)
(c) โœ” ( 11 2,2,2,1,1,1,1,1)
(d) None
6. If ๐’ is negative then ๐’! Is
(a) 1
(b) 0
(c) unique
(d) โœ”Not defined
7. ๐’ − ๐Ÿ๐‘ช๐’“ + ๐’ − ๐Ÿ๐‘ช๐’“−๐Ÿequals
(a) โœ”๐‘›๐ถ๐‘Ÿ
(b) ๐‘›๐ถ๐‘Ÿ−1
(c) ๐‘› − 1๐ถ๐‘Ÿ
(d) ๐‘› + 1๐ถ๐‘Ÿ
8. How many signals can be given by 5 flags of different colors , using 3 at a time
(a) 120
(b) โœ”60
(c) 24
(d) 15
9. ๐’๐‘ท๐’=
(a) 1
(b) ๐‘›
(c) โœ” ๐‘›!
(d) None
10. ๐Ÿ–! ๐Ÿ•! =
(a) โœ”8
(b) 7
(c) 56
(d) 8 7
11. If an event ๐‘จ can occur in ๐’‘ ways and ๐‘ฉ can occur ๐’’ ways , then number of ways that both events
occur is:
(a) ๐‘ + ๐‘ž
(b) โœ” ๐‘. ๐‘ž
(c) (๐‘๐‘ž)!
(d) (๐‘ + ๐‘ž)!
12. If ( ๐Ÿ๐Ÿ) = ( ๐’ ๐Ÿ– ) then the value of ๐’,
(a) 15
(b) 16
(c) 18
(d) โœ”20
13. Probability of non-occurrence of an event E is equal to :
(a) โœ”1 − (๐ธ)
(b) (๐ธ) + ๐‘›(๐‘†) ๐‘›(๐ธ)
(c) (๐‘†) ๐‘›(๐ธ)
(d) 1 + (๐ธ)
14. For independent events (๐‘จ ∩ ๐‘ฉ) =
(a) (๐ด) + ๐‘ƒ(๐ต)
(b) (๐ด) − ๐‘ƒ(๐ต)
(c) โœ” (๐ด). ๐‘ƒ(๐ต)
(d) (๐ด) ๐‘ƒ(๐ต)
15. A card is drawn from a deck of 52 playing cards. The probability of card that it is an ace card is:
(a) 2 13
(b) 4 13
(c) โœ” 1 13
(d) 17 13
16. Four persons wants to sit in a circular sofa, the total ways are:
(a) 24
(b) โœ”6
(c) 4
(d) None of these
17. Two teams ๐‘จ and ๐‘ฉ are playing a match, the probability that team ๐‘จ does not lose is:
(a) 1 3
(b) 2 3
(c) 1
(d) 0
18. Let ๐‘บ = {๐Ÿ, ๐Ÿ, ๐Ÿ‘, … , ๐Ÿ๐ŸŽ} the probability that a number is divided by 4 is :
(a) 2 5
(b) โœ” 1 5
(c) 1 10
(d) 1 2
19. A die is rolled , the probability of getting 3 or 5 is:
(a) 2 3
(b) โœ” 15 36
(c) 15 36
(d) 1 36
20. A coin is tossed 5 times , then ๐’(๐‘บ) is equal to:
(a) โœ”32
(b) 25
(c) 10
(d) 20
21. The number of ways for sitting 4 persons in a train on a straight sofa is:
(a) โœ”24
(b) 6
(c) 4
(d) None of these
22. Sample space for tossing a coin is:
(a) {๐ป}
(b) {๐‘‡}
(c) {๐ป, ๐ป}
(d) โœ” {๐ป, ๐‘‡}
23. If (๐‘ฌ) = ๐Ÿ• ๐Ÿ๐Ÿ , ๐’(๐‘บ) = ๐Ÿ–๐Ÿ’๐ŸŽ๐ŸŽ , ๐’(๐‘ฌ) =
(a) 108
(b) โœ”4900
(c) 144
(d) 14400
24. In a permutation ๐’๐‘ท๐’“ ๐’๐’“ (๐’, ๐’“) , it is always true that
(a) โœ”๐‘› ≥ ๐‘Ÿ
(b) ๐‘› < ๐‘Ÿ
(c) ๐‘› ≤ ๐‘Ÿ
(d) ๐‘› < 0, ๐‘Ÿ < 0
25. If an event always occurs , then it is called:
(a) Null Event
(b) Possible Event
(c) โœ”Certain event
(d) Independent Event
26. If ๐‘ฌ is a certain event , then
(a) (๐ธ) = 0
(b) โœ”(๐ธ) = 1
(c) 0 < (๐ธ) < 1
(d) (๐ธ) > 1
27. If ๐‘ฌ is an impossible event ,then
(a) โœ”(๐ธ) = 0
(b) (๐ธ) = 1
(c) (๐ธ) ≠ 0
(d) 0 < (๐ธ) < 1
28. Non occurrence of an event E is denoted by:
(a) ∼ ๐ธ
(b) โœ” ๐ธ
(c) ๐ธ ๐‘
(d) All of these
1. The statement ๐Ÿ’ ๐’ + ๐Ÿ‘๐’ + ๐Ÿ’ is true when :
(a) ๐‘› = 0
(b) ๐‘› = 1
(c) โœ” ๐‘› ≥ 2
(d) ๐‘› is any +iv integer
2. The number of terms in the expansion of (๐’‚ + ๐’ƒ) ๐’ are:
(a) ๐‘›
(b) โœ” ๐‘› + 1
(c) 2 ๐‘›
(d) 2 ๐‘›−1
3. Middle term/s in the expansion of (๐’‚ − ๐Ÿ‘๐’™) ๐Ÿ๐Ÿ’ is/are :
(a) ๐‘‡7
(b) โœ” ๐‘‡8
(c) ๐‘‡6&๐‘‡7
(d) ๐‘‡7&๐‘‡8
4. The coefficient of the last term in the expansion of (๐Ÿ − ๐’™) ๐Ÿ• is :
(a) 1
(b) โœ” −1
(c) 7
(d) −7
5. ( ๐’ ๐ŸŽ ) + ( ๐Ÿ๐’ ๐Ÿ ) + ( ๐Ÿ๐’ ๐Ÿ ) + โ‹ฏ + ( ๐Ÿ๐’ ๐Ÿ๐’) is equal to:
(a) 2 ๐‘›
(b) โœ”2 2๐‘›
(c) 2 2๐‘›−1
(d) 2 2๐‘›+1
6. ๐Ÿ + ๐’™ + ๐’™๐Ÿ + ๐’™๐Ÿ‘ + โ‹ฏ
(a) (1 + ๐‘ฅ) −1
(b) โœ”(1 − ๐‘ฅ) −1
(c) (1 + ๐‘ฅ) −2
(d) (1 − ๐‘ฅ) −2
7. The middle term in the expansion of (๐’‚ + ๐’ƒ) ๐’ is ( ๐Ÿ + ๐Ÿ) ; then ๐’ is
(a) Odd
(b) โœ” even
(c) prime
(d) none of these
8. The number of terms in the expansion of (๐’‚ + ๐’ƒ) ๐Ÿ๐ŸŽ is:
(a) 18
(b) 20
(c) โœ” 21
(d) 19
9. The expansion (๐Ÿ − ๐Ÿ’๐’™) −๐Ÿ is valid if:
(a) โœ”|๐‘ฅ| < 1 4
(b) |๐‘ฅ| > 1 4
(c) −1 < ๐‘ฅ < 1
(d) |๐‘ฅ| < −1
10. The statement ๐Ÿ‘ ๐’ < ๐‘›! is true, when
(a) ๐‘› = 2
(b) ๐‘› = 4
(c) ๐‘› = 6
(d) โœ”๐‘› > 6
11. General term in the expansion of (๐’‚ + ๐’ƒ) ๐’ is:
(a) ( +1 ๐‘Ÿ )๐‘Ž ๐‘›−๐‘Ÿ๐‘ฅ^๐‘Ÿ
(b)โœ”( ๐‘› ๐‘Ÿ−1)๐‘Ž ๐‘›−๐‘Ÿ๐‘ฅ ๐‘Ÿ
(c) ( ๐‘Ÿ+1)๐‘Ž ๐‘›−๐‘Ÿ๐‘ฅ ๐‘Ÿ
(d) ( ๐‘Ÿ )๐‘Ž ๐‘›−๐‘Ÿ๐‘ฅ ๐‘Ÿ
12. The method of induction was given by Francesco who lived from:
(a) โœ”1494-1575
(b) 1500-1575
(c) 1498-1575
(d) 1494-1570
1. Two rays with a common starting point form:
(a) Triangle
(b) โœ” Angle
(c) Radian
(d) Minute
2. The common starting point of two rays is called:
(a) Origin
(b) Initial Point
(c) โœ” Vertex
(d)All of these
3. If the rotation of the angle is counter clock wise, then angle is:
(a) Negative
(b) โœ” Positive
(c) Non-Negative
(d) None of these
4. If the initial ray โƒ—๐‘ถ๐‘จโƒ—โƒ—โƒ—โƒ—โƒ— rates in anti-clockwise direction in such a way that it coincides with itself, the
angle then formed is:
(a) 180°
(b) 270°
(c) 300°
(d) โœ” 360°
5. One rotation in anti-clock wise direction is equal to:
(a) 180°
(b) 270°
(c) โœ”360°
(d) 90°
6. Straight line angle is equal to
(a) 1 2 ๐‘Ÿ๐‘œ๐‘ก๐‘Ž๐‘ก๐‘–๐‘œ๐‘›
(b) ๐œ‹ radian
(c) 180°
(d) โœ” All of these
7. One right angle is equal to
(a) ๐œ‹ 2 ๐‘Ÿ๐‘Ž๐‘‘๐‘–๐‘Ž๐‘›
(b) 90°
(c) 1 4 ๐‘Ÿ๐‘œ๐‘ก๐‘Ž๐‘ก๐‘–๐‘œ๐‘›
(d) โœ” All of these
8. ๐Ÿ° is equal to
(a) 30 minutes
(b) โœ” 60 minutes
(c) 1 60 minutes
(d) 1 2 minutes
60th part of ๐Ÿ° is equal to
(a) One second
(b) โœ” One minute
(c) 1 Radian
(d) ๐œ‹ radian
14. ๐Ÿ๐Ÿ”°๐Ÿ‘๐ŸŽ′ equal to
(a) โœ”16.5°
(b) 32° 2
(c) 16.05°
(d) 16.2°
15. Conversion of ๐Ÿ๐Ÿ. ๐Ÿ๐Ÿ“๐Ÿ”° to ๐‘ซ°๐‘ด′๐‘บ ′ ′ form is:
(a) 21°25’6’’
(b) 21°40′27′′
(c) โœ” 21°15′22′′
(d) 21°30′2′′
16. The angle subtended at the center of a circle by an arc whose length is equal to the radius of the
circle is called:
(a) 1 Degree
(b) 1’
(c) โœ” 1 Radian
(d) 1’’
17. The system of angular measurement in which the angle is measured in radian is called:
(a) Sexagesimal System
(b) โœ” Circular System
(c) English System
(d) Gradient System
18. Relation between the length of arc of a circle and the circular measure of it central angle is:
(a) ๐‘™ = ๐‘Ÿ ๐œƒ
(b) ๐œƒ = ๐‘™๐‘Ÿ
(c) โœ” ๐œƒ = ๐‘™ ๐‘Ÿ
(d) ๐‘™ = 1 2 ๐‘Ÿ 2๐œƒ
19. With usual notation , if ๐’ = ๐Ÿ”๐’„๐’Ž, ๐’“ = ๐Ÿ๐’„๐’Ž, then unit of ๐œฝ is:
(a) ๐‘๐‘š
(b) ๐‘๐‘š2
(c) โœ” No unit
(d) ๐‘๐‘š3
20. ๐Ÿ° is equal to:
(a) ( 180) °
(b) 180 ๐œ‹ ๐‘Ÿ๐‘Ž๐‘‘
(c) ( 180 ๐œ‹ ) ๐‘Ÿ๐‘Ž๐‘‘
(d) โœ” ๐œ‹ 180 ๐‘Ÿ๐‘Ž๐‘‘ 21
. ๐Ÿ° is equal to:
(a) 0.175 ๐‘Ÿ๐‘Ž๐‘‘
(b) โœ”0.0175๐‘Ÿ๐‘Ž๐‘‘
(c) 1.75 ๐‘Ÿ๐‘Ž๐‘‘
(d) 0.00175๐‘Ÿ๐‘Ž๐‘‘
22. 1 radian is equal to
(a) ( 180) °
(b) 180 ๐œ‹ ๐‘Ÿ๐‘Ž๐‘‘
(c) โœ” ( 180 ๐œ‹ ) °
(d) ๐œ‹ 180 ๐‘Ÿ๐‘Ž๐‘‘
23. 1 radian is equal to:
(a) โœ”57.296°
(b) 5.7296°
(c) 175.27°
(d) 17.5276
24. 3 radian is:
(a) โœ”171.888°
(b) 120°
(c) 300°
(d) 270°
25. ๐Ÿ๐ŸŽ๐Ÿ“° = __________๐’“๐’‚๐’…๐’Š๐’‚๐’
(a) โœ” 7๐œ‹ 12
(b) 2๐œ‹ 3
(c) 5๐œ‹ 12
(d) 5๐œ‹ 6
26. 3’’= ___________ ๐’“๐’‚๐’…๐’Š๐’‚๐’
(a) 53๐œ‹ 270
(b) โœ” ๐œ‹ 216000
(c) 41๐œ‹ 720
(d) 27721๐œ‹ 32400
27. ๐… ๐Ÿ’ ๐’“๐’‚๐’…๐’Š๐’‚๐’ = ________๐’…๐’†๐’ˆ๐’“๐’†๐’†
(a) โœ”45°
(b) 30°
(c) 60°
(d) 75°
28. Circular measure of angle between the hands of a watch at ๐Ÿ’ ′๐‘ถ ๐’„๐’๐’๐’„๐’Œ is
(a) 45°
(b) โœ” 120°
(c) 3๐œ‹ 2
(d) 270°
29. If ๐’ = ๐Ÿ. ๐Ÿ“ ๐’„๐’Ž & ๐’“ = ๐Ÿ. ๐Ÿ“ ๐’„๐’Ž then ๐œฝ is equal to:
(a) โœ” 3 5
(b) 5 3
(c) 3.75
(d) ๐‘๐‘œ๐‘›๐‘’
30. If ๐œฝ = ๐Ÿ’๐Ÿ“° , ๐’“ = ๐Ÿ๐Ÿ–๐’Ž๐’Ž , then ๐’ =
(a) โœ” 9 2 ๐œ‹
(b) 2 9 ๐œ‹
(c) 812mm
(d) 810mm
31. Area of sector of circle of radius ๐’“ is:
(a) โœ” 1 2 ๐‘Ÿ 2๐œƒ
(b) 1 2 ๐‘Ÿ๐œƒ2
(c) 1 2 (๐‘Ÿ๐œƒ) 2
(d) 1 2๐‘Ÿ2๐œƒ
32. Angles with same initial and terminal sides are called:
(a) Acute angles
(b) Allied Angles
(c) โœ”Coterminal angles
(d) Quadrentel angles
1. Distance between the points (๐Ÿ‘, ๐Ÿ–) & ๐ต(5,6) is:
(a) โœ”2√2
(b) 3
(c) 4
(d) √2
2. Fundamental law of trigonometry is , ๐’„๐’๐’”(๐œถ − ๐œท)
(a) โœ”๐‘๐‘œ๐‘ ๐›ผ๐‘๐‘œ๐‘ ๐›ฝ + ๐‘ ๐‘–๐‘›๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
(b) ๐‘๐‘œ๐‘ ๐›ผ๐‘๐‘œ๐‘ ๐›ฝ – ๐‘ ๐‘–๐‘›๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
(c) ๐‘ ๐‘–๐‘›๐›ผ๐‘๐‘œ๐‘ ๐›ฝ + ๐‘๐‘œ๐‘ ๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
(d) ๐‘ ๐‘–๐‘›๐›ผ๐‘๐‘œ๐‘ ๐›ฝ − ๐‘๐‘œ๐‘ ๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
3. ๐’„๐’(๐œถ + ๐œท) is equal to:
(a) ๐‘๐‘œ๐‘ ๐›ผ๐‘๐‘œ๐‘ ๐›ฝ + ๐‘ ๐‘–๐‘›๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
(b) โœ” ๐‘๐‘œ๐‘ ๐›ผ๐‘๐‘œ๐‘ ๐›ฝ – ๐‘ ๐‘–๐‘›๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
(c) ๐‘ ๐‘–๐‘›๐›ผ๐‘๐‘œ๐‘ ๐›ฝ + ๐‘๐‘œ๐‘ ๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
(d) ๐‘ ๐‘–๐‘›๐›ผ๐‘๐‘œ๐‘ ๐›ฝ – ๐‘๐‘œ๐‘ ๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
4. ๐’”๐’Š(๐œถ + ๐œท) is equal to:
(a) ๐‘๐‘œ๐‘ ๐›ผ๐‘๐‘œ๐‘ ๐›ฝ + ๐‘ ๐‘–๐‘›๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
(b) ๐‘๐‘œ๐‘ ๐›ผ๐‘๐‘œ๐‘ ๐›ฝ – ๐‘ ๐‘–๐‘›๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
(c) โœ” ๐‘ ๐‘–๐‘›๐›ผ๐‘๐‘œ๐‘ ๐›ฝ + ๐‘๐‘œ๐‘ ๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
(d) ๐‘ ๐‘–๐‘›๐›ผ๐‘๐‘œ๐‘ ๐›ฝ – ๐‘๐‘œ๐‘ ๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
5. ๐’”๐’Š(๐œถ − ๐œท) is equal to:
(a) ๐‘๐‘œ๐‘ ๐›ผ๐‘๐‘œ๐‘ ๐›ฝ + ๐‘ ๐‘–๐‘›๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
(b) ๐‘๐‘œ๐‘ ๐›ผ๐‘๐‘œ๐‘ ๐›ฝ – ๐‘ ๐‘–๐‘›๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
(c) ๐‘ ๐‘–๐‘›๐›ผ๐‘๐‘œ๐‘ ๐›ฝ + ๐‘๐‘œ๐‘ ๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
(d) โœ” ๐‘ ๐‘–๐‘›๐›ผ๐‘๐‘œ๐‘ ๐›ฝ – ๐‘๐‘œ๐‘ ๐›ผ๐‘ ๐‘–๐‘›๐›ฝ
6. ๐’„๐’๐’” (๐… ๐Ÿ − ๐œท) =
(a) ๐‘๐‘œ๐‘ ๐›ฝ
(b) – ๐‘๐‘œ๐‘ ๐›ฝ
(c) โœ” ๐‘ ๐‘–๐‘›๐›ฝ
(d) – ๐‘ ๐‘–๐‘›๐›ฝ
7. ๐’„๐’๐’” (๐œท + ๐… ) =
(a) ๐‘๐‘œ๐‘ ๐›ฝ
(b) – ๐‘๐‘œ๐‘ ๐›ฝ
(c) ๐‘ ๐‘–๐‘›๐›ฝ
(d) โœ” – ๐‘ ๐‘–๐‘›๐›ฝ
8. ๐’”๐’Š๐’ (๐œท − ๐… ) =
(a) ๐‘๐‘œ๐‘ ๐›ฝ
(b) โœ” – ๐‘๐‘œ๐‘ ๐›ฝ
(c) ๐‘ ๐‘–๐‘›๐›ฝ
(d) โœ” – ๐‘ ๐‘–๐‘›๐›ฝ
9. ๐’„๐’(๐Ÿ๐… − ๐œฝ) =
(a) โœ”๐‘๐‘œ๐‘ ๐œƒ
(b) – ๐‘๐‘œ๐‘ ๐œƒ
(c) ๐‘ ๐‘–๐‘›๐œƒ
(d) – ๐‘ ๐‘–๐‘›๐œƒ
10. ๐’”๐’Š(๐Ÿ๐… − ๐œฝ) =
(a) ๐‘๐‘œ๐‘ ๐œƒ
(b) – ๐‘๐‘œ๐‘ ๐œƒ
(c) ๐‘ ๐‘–๐‘›๐œƒ
(d) โœ” – ๐‘ ๐‘–๐‘›๐œƒ 11. ๐’•๐’‚๐’(๐œถ + ๐œท) =
(a) ๐‘ก๐‘Ž๐‘›๐›ผ−๐‘ก๐‘Ž๐‘›๐›ฝ 1+๐‘ก๐‘Ž๐‘›๐›ผ๐‘ก๐‘Ž๐‘›๐›ฝ
(b) โœ” ๐‘ก๐‘Ž๐‘›๐›ผ+๐‘ก๐‘Ž๐‘›๐›ฝ 1−๐‘ก๐‘Ž๐‘›๐›ผ๐‘ก๐‘Ž๐‘›๐›ฝ
(c) ๐‘ก๐‘Ž๐‘›๐›ผ−๐‘ก๐‘Ž๐‘›๐›ฝ 1−๐‘ก๐‘Ž๐‘›๐›ผ๐‘ก๐‘Ž๐‘›๐›ฝ
(d) ๐‘ก๐‘Ž๐‘›๐›ผ+๐‘ก๐‘Ž๐‘›๐›ฝ 1−๐‘ก๐‘Ž๐‘›๐›ผ๐‘ก๐‘Ž๐‘›๐›ฝ 12. ๐’•๐’‚๐’(๐œถ − ๐œท) =
(a) โœ” ๐‘ก๐‘Ž๐‘›๐›ผ−๐‘ก๐‘Ž๐‘›๐›ฝ 1+๐‘ก๐‘Ž๐‘›๐›ผ๐‘ก๐‘Ž๐‘›๐›ฝ
(b) ๐‘ก๐‘Ž๐‘›๐›ผ+๐‘ก๐‘Ž๐‘›๐›ฝ 1−๐‘ก๐‘Ž๐‘›๐›ผ๐‘ก๐‘Ž๐‘›๐›ฝ
(c) ๐‘ก๐‘Ž๐‘›๐›ผ−๐‘ก๐‘Ž๐‘›๐›ฝ 1−๐‘ก๐‘Ž๐‘›๐›ผ๐‘ก๐‘Ž๐‘›๐›ฝ
(d) ๐‘ก๐‘Ž๐‘›๐›ผ+๐‘ก๐‘Ž๐‘›๐›ฝ 1−๐‘ก๐‘Ž๐‘›๐›ผ๐‘ก๐‘Ž๐‘›๐›ฝ
13. Angles associated with basic angles of measure ๐œฝ to a right angle or its multiple are called:
(a) Coterminal angle
(b) angle in standard position
(c) โœ” Allied angle
(d) obtuse angle
14. ๐’•๐’‚๐’ (๐… ๐Ÿ − ๐œฝ) =
(a) โœ”๐‘๐‘œ๐‘ก๐œƒ
(b) ๐‘ก๐‘Ž๐‘›๐œƒ
(c) – ๐‘๐‘œ๐‘ก๐œƒ
(d) – ๐‘ก๐‘Ž๐‘›๐œƒ
15. ๐’•๐’‚๐’ (๐… ๐Ÿ + ๐œฝ) =
(a) ๐‘๐‘œ๐‘ก๐œƒ
(b) ๐‘ก๐‘Ž๐‘›๐œƒ
(c) โœ”– ๐‘๐‘œ๐‘ก๐œƒ
(d) – ๐‘ก๐‘Ž๐‘›๐œƒ
16. ๐’”๐’Š๐’ ( ๐… ๐Ÿ + ๐œฝ) =
(a) ๐‘ ๐‘–๐‘›๐œƒ
(b) ๐‘๐‘œ๐‘ ๐œƒ
(c) –๐‘ ๐‘–๐‘›๐œƒ
(d) โœ” – ๐‘๐‘œ๐‘ ๐œƒ
17. ๐’„๐’๐’” ๐Ÿ‘๐Ÿ๐Ÿ“° is equal to:
(a) 1
(b) 0
(c) โœ” 1 √2
(d) √3 2
18. ๐’•๐’‚(−๐Ÿ๐Ÿ‘๐Ÿ“°) is equal to:
(a) โœ” 1
(b) 0
(c) 1 √3
(d) -1 19
. ๐’”๐’†๐’„(−๐Ÿ‘๐ŸŽ๐ŸŽ°) =
(a) 1
(b) โœ” 0
(c) 2
(d) -1
20. ๐’”๐’Š(๐Ÿ๐Ÿ–๐ŸŽ° + ๐œถ)๐’”๐’Š๐’(๐Ÿ—๐ŸŽ° − ๐œถ) =
(a) โœ” ๐‘ ๐‘–๐‘›๐›ผ๐‘๐‘œ๐‘ ๐›ผ
(b) – ๐‘ ๐‘–๐‘›๐›ผ๐‘๐‘œ๐‘ ๐›ผ
(c) ๐‘๐‘œ๐‘ ๐›พ
(d) – ๐‘๐‘œ๐‘ ๐›พ
21. If ๐œถ, ๐œท and ๐œธ are the angles of a triangle ABC then ๐’”๐’Š(๐œถ + ๐œท) =
(a) โœ” ๐‘ ๐‘–๐‘›๐›พ
(b) – ๐‘ ๐‘–๐‘›๐›พ
(c) ๐‘๐‘œ๐‘ ๐›พ
(d) – ๐‘๐‘œ๐‘ ๐›พ
. If ๐œถ, ๐œท and ๐œธ are the angles of a triangle ABC then ๐’„๐’๐’” (๐œถ+๐œท ) =
(a) โœ” sin ๐›พ 2
(b) – sin ๐›พ 2
(c) cos ๐›พ 2
(d) – cos ๐›พ 2
23. If ๐œถ, ๐œท and ๐œธ are the angles of a triangle ABC then ๐’„๐’(๐œถ + ๐œท) =
(a) ๐‘ ๐‘–๐‘›๐›พ
(b) – ๐‘ ๐‘–๐‘›๐›พ
(c) ๐‘๐‘œ๐‘ ๐›พ
(d) โœ” – ๐‘๐‘œ๐‘ ๐›พ
24. ๐’„๐’๐’”๐Ÿ๐Ÿ°+๐’”๐’Š๐’๐Ÿ๐Ÿ° ๐’„๐’๐’”๐Ÿ๐Ÿ°−๐’”๐’Š๐’๐Ÿ๐Ÿ° =
(a) โœ” ๐‘ก๐‘Ž๐‘›56°
(b) ๐‘ก๐‘Ž๐‘›34°
(c) ๐‘๐‘œ๐‘ก56°
(d) ๐‘๐‘œ๐‘ก34°
25. ๐’”๐’Š๐’๐Ÿ๐œถ is equal to:
(a) cos2 ๐›ผ − sin2 ๐›ผ
(b) 1 + ๐‘๐‘œ๐‘ 2๐›ผ
(c) โœ” 2๐‘ ๐‘–๐‘›๐›ผ๐‘๐‘œ๐‘ ๐›ผ
(d) 2๐‘ ๐‘–๐‘›2๐›ผ๐‘๐‘œ๐‘ 2๐›ผ
26. ๐’„๐’๐’”๐Ÿ๐œถ =
(a) cos2 ๐›ผ − sin2 ๐›ผ
(b) 1 − 2 sin2 ๐›ผ
(c) 2 cos2 ๐›ผ – 1
(d) โœ” All of these
27. ๐’•๐’‚๐’๐Ÿ๐œถ =
(a) 2๐‘ก๐‘Ž๐‘›๐›ผ 1+๐‘ก๐‘Ž๐‘›2 ๐›ผ
(b) โœ” 2๐‘ก๐‘Ž๐‘›๐›ผ 1−tan2 ๐›ผ
(c) 2 tan2 ๐›ผ 1−tan2 ๐›ผ
(d) tan2 ๐›ผ 1−tan2 ๐›ผ
28. ๐’”๐’Š๐’๐œถ + ๐’”๐’Š๐’๐œท is equal to:
(a) โœ” 2 sin ( +๐›ฝ 2 ) cos ( ๐›ผ−๐›ฝ 2
) (b) 2 cos (๐›ผ+๐›ฝ 2 ) sin ( ๐›ผ−๐›ฝ 2 )
(c) −2 sin (๐›ผ+๐›ฝ 2 ) sin ( ๐›ผ−๐›ฝ 2 )
(d) 2 cos (๐›ผ+๐›ฝ 2 ) cos (๐›ผ−๐›ฝ 2 )
29. ๐’”๐’Š๐’๐œถ − ๐’”๐’Š๐’๐œท is equal to:
(a) 2 sin ( +๐›ฝ 2 ) cos (๐›ผ−๐›ฝ 2 )
(b) โœ” 2 cos ( +๐›ฝ 2 ) sin ( ๐›ผ−๐›ฝ 2 )
(c) −2 sin (๐›ผ+๐›ฝ 2 ) sin ( ๐›ผ−๐›ฝ 2 )
(d) 2 cos (๐›ผ+๐›ฝ 2 ) cos (๐›ผ−๐›ฝ 2 )
30. ๐’„๐’๐’”๐œถ + ๐’„๐’๐’”๐œท is equal to:
(a) 2 sin ( +๐›ฝ 2 ) cos (๐›ผ−๐›ฝ 2 )
(b) 2 cos (๐›ผ+๐›ฝ 2 ) sin ( ๐›ผ−๐›ฝ 2 )
(c) -2 sin ( +๐›ฝ 2 ) sin ( ๐›ผ−๐›ฝ 2 )
(d) โœ” 2 cos ( +๐›ฝ 2 ) cos ( ๐›ผ−๐›ฝ 2 )
31. ๐’„๐’๐’”๐œถ − ๐’„๐’๐’”๐œท is equal to:
(a) 2 sin ( +๐›ฝ 2 ) cos (๐›ผ−๐›ฝ 2 )
(b) 2 cos (๐›ผ+๐›ฝ 2 ) sin ( ๐›ผ−๐›ฝ 2 )
(c) โœ” − 2 sin ( +๐›ฝ 2 ) sin ( ๐›ผ−๐›ฝ 2 )
(d) 2 cos (๐›ผ+๐›ฝ 2 ) cos (๐›ผ−๐›ฝ 2 )
32. Which is the allied angle
(a) โœ” 90° + ๐œƒ
(b) 60° + ๐œƒ
(c) 45° + ๐œƒ
(d) 30° + ๐œƒ
33. ๐Ÿ๐’”๐’Š๐’๐Ÿ•๐œฝ๐’„๐’๐’”๐Ÿ‘๐œฝ =
(a) โœ” ๐‘ ๐‘–๐‘›10๐œƒ + ๐‘ ๐‘–๐‘›4๐œƒ
(b) ๐‘ ๐‘–๐‘›5๐œƒ − ๐‘ ๐‘–๐‘›2๐œƒ
(c) ๐‘๐‘œ๐‘ 10๐œƒ + ๐‘๐‘œ๐‘ 4๐œƒ
(d) ๐‘๐‘œ๐‘ 5๐œƒ − ๐‘๐‘œ๐‘ 2๐œƒ 34. ๐Ÿ๐’„๐’๐’”๐Ÿ“๐œฝ๐’”๐’Š๐’๐Ÿ‘๐œฝ =
(b) โœ” ๐‘ ๐‘–๐‘›8๐œƒ − ๐‘ ๐‘–๐‘›2๐œƒ
(b) ๐‘ ๐‘–๐‘›8๐œƒ + ๐‘ ๐‘–๐‘›2๐œƒ
(c) ๐‘๐‘œ๐‘ 8๐œƒ + ๐‘๐‘œ๐‘ 2๐œƒ
(d) ๐‘๐‘œ๐‘ 8๐œƒ − ๐‘๐‘œ๐‘ 2๐œƒ
1. Domain of ๐’š = ๐’”๐’Š๐’๐’™ is
(a) โœ”−∞ < ๐‘ฅ < ∞
(b) −1 ≤ ๐‘ฅ ≤ 1
(c) −∞ < ๐‘ฅ < ∞ , ๐‘ฅ ≠ ๐‘›๐œ‹ , ๐‘› ∈ ๐‘
(d) ๐‘ฅ ≥ 1, ๐‘ฅ ≤ −1
2. Domain of ๐’š = ๐’„๐’๐’”๐’™ is
(a) โœ”−∞ < ๐‘ฅ < ∞
(b) −1 ≤ ๐‘ฅ ≤ 1
(c) −∞ < ๐‘ฅ < ∞ , ๐‘ฅ ≠ ๐‘›๐œ‹ , ๐‘› ∈ ๐‘
(d) ๐‘ฅ ≥ 1, ๐‘ฅ ≤ −1
3. Domain of ๐’š = ๐’•๐’‚๐’๐’™ is
(a) −∞ < ๐‘ฅ < ∞
(b) −1 ≤ ๐‘ฅ ≤ 1
(c) โœ” −∞ < ๐‘ฅ < ∞ , ๐‘ฅ ≠ 2๐‘›+1 2 ๐œ‹ , ๐‘› ∈ ๐‘
(d) ๐‘ฅ ≥ 1, ๐‘ฅ ≤ −1
4. Domain of ๐’š = ๐’”๐’†๐’„๐’™ is
(a) −∞ < ๐‘ฅ < ∞
(b) −1 ≤ ๐‘ฅ ≤ 1
(c) โœ” −∞ < ๐‘ฅ < ∞ , ๐‘ฅ ≠ 2๐‘›+1 2 ๐œ‹ , ๐‘› ∈ ๐‘
(d) ๐‘ฅ ≥ 1, ๐‘ฅ ≤ −1
5. Domain of ๐’š = ๐’„๐’”๐’„๐’™ is
(a) −∞ < ๐‘ฅ < ∞
(b)โœ” −1 ≤ ๐‘ฅ ≤ 1
(c) −∞ < ๐‘ฅ < ∞ , ๐‘ฅ ≠ 2๐‘›+1 2 ๐œ‹ , ๐‘› ∈ ๐‘
(d) ๐‘ฅ ≥ 1, ๐‘ฅ ≤ −1
6. Domain of ๐’š = ๐’„๐’๐’•๐’™ is
(a) −∞ < ๐‘ฅ < ∞
(b)โœ” −1 ≤ ๐‘ฅ ≤ 1
(c) −∞ < ๐‘ฅ < ∞ , ๐‘ฅ ≠ 2๐‘›+1 2 ๐œ‹ , ๐‘› ∈ ๐‘
(d) ๐‘ฅ ≥ 1, ๐‘ฅ ≤ −1
1. A “Triangle” has :
(a) Two elements
(b) 3 elements
(c) 4 elements
(d) โœ” 6 elmen
2. When we look an object above the horizontal ray, the angle formed is called angle of:
(a) โœ”Elevation
(b) depression
(c) incidence
(d) reflects
3. When we look an object below the horizontal ray, the angle formed is called angle of:
(a) Elevation
(b) โœ” depression
(c) incidence
4. A triangle which is not right is called:
(a) โœ”Oblique triangle
(b) Isosceles triangle
(c) Scalene triangle
(d) Right isosceles triangle
5. To solve an oblique triangle we use:
(a) โœ”Law of Sine
(b) Law of Cosine
(c) Law of Tangents
(d) All of these
6. In any triangle ๐‘จ๐‘ฉ๐‘ช, ๐’ƒ ๐Ÿ+๐’„๐Ÿ−๐’‚๐Ÿ ๐Ÿ๐’ƒ๐’„ =
(a) โœ”๐‘๐‘œ๐‘ ๐›ผ
(b) ๐‘ ๐‘–๐‘›๐›ผ
(c) ๐‘๐‘œ๐‘ ๐›ฝ
(d) ๐‘๐‘œ๐‘ ๐›พ
7. Which can be reduced to Pythagoras theorem,
(a) Law of sine
(b) โœ” law of cosine
(c) law of tangents
(d) Half angle formulas
8. In any triangle ๐‘จ๐‘ฉ๐‘ช, if ๐œท = ๐Ÿ—๐ŸŽ° , then ๐’ƒ ๐Ÿ = ๐’‚๐Ÿ + ๐’„๐Ÿ − ๐Ÿ๐’‚๐’„๐’„๐’๐’”๐œท becomes:
(a) Law of sine
(b) Law of tangents
(c) โœ”Law of cosine
(d) None of these
9. In any triangle ๐‘จ๐‘ฉ๐‘ช, law of tangent is :
(a) ๐‘Ž−๐‘ ๐‘Ž+๐‘ = tan (๐›ผ−๐›ฝ) tan (๐›ผ+๐›ฝ)
(b) ๐‘Ž+๐‘ ๐‘Ž−๐‘ = tan (๐›ผ+๐›ฝ) tan (๐›ผ−๐›ฝ)
(c) โœ” ๐‘Ž−๐‘ ๐‘Ž+๐‘ = tan๐›ผ−๐›ฝ 2 tan๐›ผ+๐›ฝ 2
(d) ๐‘Ž−๐‘ ๐‘Ž+๐‘ = tan๐›ผ+๐›ฝ 2 tan๐›ผ−๐›ฝ 2
10. In any triangle ๐‘จ๐‘ฉ๐‘ช, √ (๐‘บ−๐’‚)(๐’”−๐’ƒ) ๐’‚๐’ƒ =
(a) sin ๐›ผ 2
(b) sin ๐›ฝ 2
(c) โœ” sin ๐›พ 2
(d) cos ๐›ผ 2
11. In any triangle ๐‘จ๐‘ฉ๐‘ช, √ (๐‘บ−๐’ƒ)(๐’”−๐’„) ๐’ƒ๐’„ =
(a) โœ” sin ๐›ผ 2
(b) sin ๐›ฝ 2
(c) sin ๐›พ 2
(d) cos ๐›ผ 2
12. In any triangle ๐‘จ๐‘ฉ๐‘ช, √ (๐‘บ−๐’‚)(๐’”−๐’„) ๐’‚๐’„ =
(a) sin ๐›ผ 2
(b) โœ” sin ๐›ฝ 2
(c) sin ๐›พ 2
(d) cos ๐›ผ 2
13. In any triangle ๐‘จ๐‘ฉ๐‘ช, ๐’„๐’๐’” ๐œถ ๐Ÿ =
(a) √ (๐‘ −๐‘Ž) ๐‘Ž๐‘
(b) √ (๐‘ −๐‘) ๐‘Ž๐‘
(c) โœ” √ (๐‘ −๐‘Ž) ๐‘๐‘
(d) √ (๐‘ −๐‘) ๐‘Ž๐‘
14. In any triangle ๐‘จ๐‘ฉ๐‘ช, ๐’„๐’๐’” ๐œท ๐Ÿ =
(a) √ (๐‘ −๐‘Ž) ๐‘Ž๐‘
(b) โœ”√ (๐‘ −๐‘) ๐‘Ž๐‘
(c) √ (๐‘ −๐‘Ž) ๐‘๐‘
(d) √ (๐‘ −๐‘) ๐‘Ž๐‘
15. In any triangle ๐‘จ๐‘ฉ๐‘ช, ๐’„๐’๐’” ๐œธ ๐Ÿ =
(a) √ (๐‘ −๐‘Ž) ๐‘Ž๐‘
(b) √ (๐‘ −๐‘) ๐‘Ž๐‘
(c) √ (๐‘ −๐‘Ž) ๐‘๐‘
(d) โœ” √ (๐‘ −๐‘) ๐‘Ž๐‘
16. In any triangle ๐‘จ๐‘ฉ๐‘ช, with usual notations , ๐’” is equal to
(a) ๐‘Ž + ๐‘ + ๐‘
(b) ๐‘Ž+๐‘+๐‘ 3
(c) โœ” ๐‘Ž+๐‘+๐‘ 2
(d) ๐‘Ž๐‘๐‘ 2
17. In any triangle ๐‘จ๐‘ฉ๐‘ช, √ (๐’”−๐’„) (๐’”−๐’‚)(๐’”−๐’ƒ) =
(a) sin ๐›พ 2
(b) cos ๐›พ 2
(c) tan ๐›พ 2
(d) โœ” cot ๐›พ 2
18. In any triangle ๐‘จ๐‘ฉ๐‘ช, √ (๐’”−๐’‚)(๐’”−๐’ƒ) ๐’”(๐’”−๐’„) =
(a) sin ๐›พ 2
(b) cos ๐›พ 2
(c) โœ” tan ๐›พ 2
(d) cot ๐›พ 2
19. To solve an oblique triangles when measure of three sides are given , we can use:
(a) โœ”Hero’s formula
(b) Law of cosine
(c) Law of sine
(d) Law of tangents
20. The smallest angle of โˆ†๐‘จ๐‘ฉ๐‘ช, when ๐’‚ = ๐Ÿ‘๐Ÿ•. ๐Ÿ‘๐Ÿ’ , ๐’ƒ = ๐Ÿ‘. ๐Ÿ๐Ÿ’ , ๐’„ = ๐Ÿ‘๐Ÿ“. ๐ŸŽ๐Ÿ” is
(a) ๐›ผ
(b) โœ”๐›ฝ
(c) ๐›พ
(d) cannot be determined
21. In any triangle ๐‘จ๐‘ฉ๐‘ช Area if triangle is :
(a) ๐‘๐‘ sin๐›ผ
(b) 1 2 ๐‘๐‘Ž ๐‘ ๐‘–๐‘›๐›ผ
(c) 1 2 ๐‘Ž๐‘ ๐‘ ๐‘–๐‘›๐›ฝ
(d) โœ” 1 2 ๐‘Ž๐‘๐‘ ๐‘–๐‘›๐›พ
22. The circle passing through the thee vertices of a triangle is called:
(a) โœ”Circum circle
(b) in-circle
(c) ex-centre
(d) escribed circle
23. The point of intersection of the right bisectors of the sides of the triangle is :
(a) โœ”Circum centre
(b) In-centre
(c) Escribed center
(d) Diameter
24. In any triangle ๐‘จ๐‘ฉ๐‘ช, with usual notations, ๐’‚ ๐Ÿ๐’”๐’Š๐’๐œถ =
(a) ๐‘Ÿ
(b) ๐‘Ÿ1
(c) โœ” ๐‘…
(d) โˆ†
25. In any triangle ๐‘จ๐‘ฉ๐‘ช, with usual notations, ๐’‚ ๐’”๐’Š๐’๐œท =
(a) 2๐‘Ÿ
(b)2 ๐‘Ÿ1
(c) โœ”2๐‘…
(d) 2โˆ†
26. In any triangle ๐‘จ๐‘ฉ๐‘ช, with usual notations, ๐’”๐’Š๐’ ๐œธ =
(a) ๐‘…
(b) โœ” ๐‘ 2๐‘…
(c) 2๐‘… ๐‘
(d) ๐‘… 2
27. In any triangle ๐‘จ๐‘ฉ๐‘ช, with usual notations, ๐’‚๐’ƒ๐’„ =
(a) ๐‘…
(b) ๐‘…๐‘ 
(c) โœ”4๐‘…โˆ†
(d) โˆ† ๐‘ 
28. In any triangle ๐‘จ๐‘ฉ๐‘ช, with usual notations, โˆ† ๐’”−๐’‚ =
(a) ๐‘Ÿ
(b) ๐‘…
(c) โœ” ๐‘Ÿ1
(d) ๐‘Ÿ2
29. In any triangle ๐‘จ๐‘ฉ๐‘ช, with usual notations, โˆ† ๐’”−๐’ƒ =
(a) ๐‘Ÿ
(b) ๐‘…
(c) ๐‘Ÿ1
(d) โœ” ๐‘Ÿ2
30. In any triangle ๐‘จ๐‘ฉ๐‘ช, with usual notations, โˆ† ๐’”−๐’„ =
(a) โœ”๐‘Ÿ3
(b) ๐‘…
(c) ๐‘Ÿ1
(d) ๐‘Ÿ2
31. In any triangle ๐‘จ๐‘ฉ๐‘ช, with usual notation , ๐’“: ๐‘น: ๐’“๐Ÿ =
(a) 3:2:1
(b) 1:2:2
(c) โœ” 1:2:3
(d) 1:1:1 32.
In any triangle ๐‘จ๐‘ฉ๐‘ช, with usual notation , ๐’“: ๐‘น: ๐’“๐Ÿ: ๐’“๐Ÿ: ๐’“๐Ÿ‘ =
(a) 3:3:3:2:1
(b) 1:2:2:3:3
(c) โœ” 1:2:3:3:3
(d) 1:1:1:1:1
1. An equation containing at least one trigonometric function is called:
(a) Trigonometric function
(b) โœ”Trigonometric equation
(c) Trigonometric value
(d) None
2. If ๐’”๐’Š๐’๐’™ = ๐Ÿ , then solution in the interval [๐ŸŽ, ๐Ÿ๐…] is:
(a) โœ”{ ๐œ‹ 6 , 5๐œ‹ 6 }
(b) { 6 , 7๐œ‹ 6 }
(c) { 3 , 4๐œ‹ 6 }
(d) { 3 , 2๐œ‹ 6 }
3. If ๐’„๐’๐’”๐’™ = ๐Ÿ , then the reference angle is:
(a) โœ” ๐œ‹ 3
(b) – ๐œ‹ 3
(c) ๐œ‹ 6
(d) – ๐œ‹ 6
4. If ๐’”๐’Š๐’๐’™ = ๐Ÿ , then the reference angle is:
(a) ๐œ‹ 3
(b) – ๐œ‹ 3
(c) โœ” ๐œ‹ 6
(d) – ๐œ‹ 6
5. General solution of ๐’•๐’‚๐’๐’™ = ๐Ÿ is:
(a) โœ”{ ๐œ‹ 4 + ๐‘›๐œ‹, 5๐œ‹ 4 + ๐‘›๐œ‹}
(b){ 4 + 2๐‘›๐œ‹, 5๐œ‹ 4 + 2๐‘›๐œ‹}
(c){ 4 + ๐‘›๐œ‹, 3๐œ‹ 4 + ๐‘›๐œ‹}
(d){ 4 + 2๐‘›๐œ‹, 3๐œ‹ 4 + 2๐‘›๐œ‹}
6. If ๐’•๐’‚๐’๐Ÿ๐’™ = −๐Ÿ, then solution in the interval [๐ŸŽ, ๐…]is:
(a) โœ” ๐œ‹ 8
(b) ๐œ‹ 4
(c) 3๐œ‹ 8
(d) 3๐œ‹ 4
7. If ๐’”๐’Š๐’๐’™ + ๐’„๐’๐’”๐’™ = ๐ŸŽ then value of ๐’™ ∈ [๐ŸŽ, ๐Ÿ๐…]
(a) { 4 , 3๐œ‹ 4 }
(b) { 4 , 7๐œ‹ 4 }
(c) โœ” { 3๐œ‹ 4 , 7๐œ‹ 4 }
(d) { 4 , −๐œ‹ 4 }
8. General solution of ๐Ÿ’๐’”๐’Š๐’๐’™ − ๐Ÿ– = ๐ŸŽ is:
(a) {๐œ‹ + 2๐‘›๐œ‹}
(b) {๐œ‹ + ๐‘›๐œ‹}
(c) {−๐œ‹ + ๐‘›๐œ‹}
(d) โœ”not possible
9. General solution of ๐Ÿ + ๐’„๐’๐’”๐’™ = ๐ŸŽ is:
(a) โœ”{๐œ‹ + 2๐‘›๐œ‹}
(b) {๐œ‹ + ๐‘›๐œ‹}
(c) {−๐œ‹ + ๐‘›๐œ‹}
(d) not possible
10. For the general solution , we first find the solution in the interval whose length is equal to its:
(a) Range
(b) domain
(c) co-domain
(d) โœ” period
11. All trigonometric functions are ……………….. functions.
(a) โœ”Periodic
(b) continues
(c) injective
(d) bijective
12. General solution of every trigonometric equation consists of :
(a) One solution only
(b) two solutions
(c) โœ” infinitely many solutions
(d) no real solution
1. The function ๐‘ฐ(๐’™) = ๐’™ is called :
(a) A linear function
(b) โœ” An identity function
(c) A quadratic function
(d) A cubic function
2. If ๐’š is expressed in terms of a variable ๐’™ as ๐’š = ๐’‡(๐’™), then ๐’š is called :
(a) โœ”An explicit function
(b) An implicit function
(c) A linear function
(d) An identity function
3. ๐‘ช๐’๐’”๐’‰๐Ÿ๐’™ − ๐‘บ๐’Š๐’๐’‰ ๐Ÿ๐’™ =
(a) -1
(b) 0
(c) โœ”1
(d) None of these
4. ๐’„๐’๐’”๐’†๐’„๐’‰๐’™ is equal to
(a) 2 ๐‘’ ๐‘ฅ+๐‘’−๐‘ฅ
(b) 1 ๐‘’ ๐‘ฅ−๐‘’−๐‘ฅ
(c) โœ” 2 ๐‘’ ๐‘ฅ−๐‘’−๐‘ฅ
(d) 2 ๐‘’−๐‘ฅ+๐‘’๐‘ฅ
5. ๐ฅ๐ข๐ฆ๐’™→๐’‚ ๐’™ ๐Ÿ‘−๐’‚๐Ÿ‘ ๐’™−๐’‚ =
(a) Undefined
(b) โœ” 3๐‘Ž2
(c) ๐‘Ž 2
(d) 0
6. ๐ฅ๐ข๐ฆ๐’™→๐ŸŽ(๐Ÿ + ๐’™) ๐Ÿ ๐’™ =
(a) 1 ๐‘’
(b) โœ” ๐‘’
(c) ๐‘’ 2
(d) Undefined
7. The notation ๐’š = ๐’‡(๐’™) was invented by
(a) Lebnitz
(b) โœ” Euler
(c) Newton
(d) Lagrange
8. If ๐’‡(๐’™) = ๐’™๐Ÿ − ๐Ÿ๐’™ + ๐Ÿ , then ๐’‡(๐ŸŽ) =
(a) -1
(b) 0
(c) โœ” 1
(d) 2
9. When we say that ๐’‡ is function from set ๐‘ฟ to set ๐’€, then ๐‘ฟ is called
(a) โœ”Domain of ๐‘“
(b) Range of ๐‘“
(c) Codomain of ๐‘“
(d) None of these
10. The term “Function” was recognized by______ to describe the dependence of one quantity to
another.
(a) โœ”Lebnitz
(b) Euler
(c) Newton
(d) Lagrange
11. If ๐’‡(๐’™) = ๐’™๐Ÿ then the range of ๐’‡ is
(a) โœ” [0,∞)
(b) (-∞, 0]
(c) (0, ∞)
(d) None of these
12. If ๐’‡(๐’™) = ๐’™ ๐’™ ๐Ÿ−๐Ÿ’ then domain of ๐’‡ is
(a) ๐‘…
(b) ๐‘… − {0}
(c) โœ” ๐‘… − {±2}
(d) ๐‘„
13. If a graph express a function , then a vertical line must cut the graph at
(a) โœ”One point only
(b) Two points
(c) More than one point
(d) No point
14. If ๐’‡(๐’™) = { ๐’™ , ๐’˜๐’‰๐’†๐’๐ŸŽ ≤ ๐’™ ≤ ๐Ÿ ๐’™ − ๐Ÿ , ๐’˜๐’‰๐’†๐’ ๐Ÿ < ๐‘ฅ ≤ 2 , then domain of ๐’‡
(a) โœ” [0,2]
(b) (0,2)
(c) [1,2]
(d) all real numbers
15. The graph of linear equation is always a
(a) โœ”Straight line
(b) parabola
(c) circle
(d) cube
16. The domain and range of identity function , ๐‘ฐ: ๐‘ฟ → ๐‘ฟ is
(a) โœ”๐‘‹
(b) +iv real numbers
(c) –iv real numbers
(d) integers
17. The linear function ๐’‡(๐’™) = ๐’‚๐’™ + ๐’ƒ is identity function if
(a) ๐‘Ž ≠ 0, ๐‘ = 1
(b) ๐‘Ž = 1, ๐‘ = 0
(c) ๐‘Ž = 1, ๐‘ = 1
(d) ๐‘Ž = 0
18. The linear function ๐’‡(๐’™) = ๐’‚๐’™ + ๐’ƒ is constant function if ๐‘Ž ≠ 0,
(a) ๐‘ = 1
(b) ๐‘Ž = 1, ๐‘ = 0
(c) ๐‘Ž = 1, ๐‘ = 1
(d) โœ” ๐‘Ž = 0
19. If ๐’š = ๐’„๐’๐’”๐’™ , ๐’…๐’๐’Ž๐’‚๐’Š๐’ = ๐‘น then range is
(a) -1,1
(b) โœ” [-1,1]
(c) ๐‘…-[-1,1]
(d) ๐‘… −]-1,1[
20. If ๐’š = ๐’•๐’‚๐’๐’™, ๐’…๐’๐’Ž๐’‚๐’Š๐’ = {๐’™|๐’™ ∈ ๐‘น, ๐’™ ≠ (๐Ÿ๐’ + ๐Ÿ) ๐… ๐Ÿ , ๐’ ๐’Š๐’๐’•๐’†๐’“๐’ˆ๐’†๐’“} then range is
(a) ]-1,1[
(b) [-1,1[
(c) ๐‘…-[-1,1]
(d) โœ” all real numbers
21. If ๐’š = ๐’”๐’†๐’„๐’™ , ๐’…๐’๐’Ž๐’‚๐’Š๐’ = {๐’™|๐’™ ∈ ๐‘น, ๐’™ ≠ (๐Ÿ๐’ + ๐Ÿ) ๐… ๐Ÿ , ๐’ ๐’Š๐’๐’•๐’†๐’“๐’ˆ๐’†๐’“} then range is
(a) ]-1,1[
(b) [-1,1[
(c) ๐‘…-[-1,1]
(d) โœ” ๐‘… −]-1,1[
22. If ๐’š = ๐’„๐’๐’•๐’™ , ๐’…๐’๐’Ž๐’‚๐’Š๐’ = {๐’™|๐’™ ∈ ๐‘น, ๐’™ = ๐’๐… , ๐’ ๐’Š๐’๐’•๐’†๐’ˆ๐’†๐’“} then range is
(a)๐‘ฆ ≥ 1, ๐‘ฆ ≤ −1
(b) ๐‘ฆ ≤ 1, ๐‘ฆ ≥ −1
(c) ๐‘ฆ < 1, ๐‘ฆ > −1
(d) โœ” all real numbers
23. If ๐’š = ๐’„๐’๐’”๐’†๐’„๐’™ , ๐’…๐’๐’Ž๐’‚๐’Š๐’ = {๐’™|๐’™ ∈ ๐‘น, ๐’™ = ๐’๐… , ๐’ ๐’Š๐’๐’•๐’†๐’ˆ๐’†๐’“} then range is
(a) โœ”๐‘ฆ ≥ 1, ๐‘ฆ ≤ −1
(b) ๐‘ฆ ≤ 1, ๐‘ฆ ≥ −1
(c) ๐‘ฆ < 1, ๐‘ฆ > −1
(d) all real numbers
24. If ๐’™ = ๐’‚๐’š , ๐’•๐’‰๐’†๐’ ๐’š = ๐’๐’๐’ˆ๐’‚ ๐’™ is called logarithmic function if
(a) ๐‘Ž < 0
(b) ๐‘Ž > 0
(c) ๐‘Ž = 0
(d) โœ”๐‘Ž > 0 , ๐‘Ž ≠ 1
25. If ๐’„๐’๐’”๐’‰๐’™ = ๐’† ๐’™+๐’†−๐’™ ๐Ÿ , then its domain is set of real numbers and range is
(a) Set of all real numbers
(b) โœ” Set of +iv real numbers
(c) [1,∞) (d) [-1,∞)
26. In logarithmic form ๐’„๐’๐’”๐’‰−๐Ÿ๐’™ can be written as
(a) โœ”ln (๐‘ฅ + √๐‘ฅ 2 + 1)
(b) ln (๐‘ฅ + √๐‘ฅ2 − 1)
(c) ln (๐‘ฅ − √๐‘ฅ 2 + 1)
(d) ln (๐‘ฅ − √๐‘ฅ2 − 1)
27. In logarithmic function ๐’”๐’Š๐’๐’‰−๐Ÿ๐’™ is written as
(a) ln (๐‘ฅ + √๐‘ฅ 2 + 1)
(b) โœ” ln (๐‘ฅ + √๐‘ฅ2 − 1)
(c) ln (๐‘ฅ − √๐‘ฅ 2 + 1)
(d) ln (๐‘ฅ − √๐‘ฅ2 − 1)
28. In logarithmic form, ๐’•๐’‚๐’๐’‰−๐Ÿ๐’™ can be written as
(a) โœ” 1 2 ln ( ๐‘ฅ+1 ๐‘ฅ−1) , |๐‘ฅ| < 1
(b) 1 2 ln ( 1+๐‘ฅ 1−๐‘ฅ) , |๐‘ฅ| < 1
(c) ln ( 1 ๐‘ฅ + √1−๐‘ฅ2 ๐‘ฅ ) , 0 ≤ ๐‘ฅ ≤ 1
(d) ln ( 1 ๐‘ฅ + √1−๐‘ฅ2 |๐‘ฅ| ) , ๐‘ฅ ≠ 0
29. In logarithmic form, ๐’„๐’๐’•๐’‰−๐Ÿ can be written as
(a) 1 2 ln ( ๐‘ฅ+1 ๐‘ฅ−1) , |๐‘ฅ| < 1
(b) โœ” 1 2 ln ( 1+๐‘ฅ 1−๐‘ฅ) , |๐‘ฅ| < 1
(c) ln ( 1 ๐‘ฅ + √1−๐‘ฅ2 ๐‘ฅ ) , 0 ≤ ๐‘ฅ ≤ 1
(d) ln ( 1 ๐‘ฅ + √1−๐‘ฅ2 |๐‘ฅ| ) , ๐‘ฅ ≠ 0
30. In logarithmic form, ๐‘บ๐’†๐’„๐’‰−๐Ÿ can be written as
(a) 1 2 ln ( ๐‘ฅ+1 ๐‘ฅ−1) , |๐‘ฅ| < 1
(b) 1 2 ln ( 1+๐‘ฅ 1−๐‘ฅ) , |๐‘ฅ| < 1
(c) โœ” ln ( 1 ๐‘ฅ + √1−๐‘ฅ2 ๐‘ฅ ) , 0 ≤ ๐‘ฅ ≤ 1
(d) ln ( 1 ๐‘ฅ + √1−๐‘ฅ2 |๐‘ฅ| ) , ๐‘ฅ ≠ 0
1. ๐’… ๐’…๐’™ ๐’•๐’‚๐’๐Ÿ‘๐’™ =
(a) โœ”3 sec2 3๐‘ฅ
(b) 1 3 sec2 3๐‘ฅ
(c) ๐‘๐‘œ๐‘ก3๐‘ฅ
(d) sec2 ๐‘ฅ
2. ๐’… ๐’…๐’™ ๐Ÿ ๐’™ =
(a) 2 ๐‘ฅ ๐‘™๐‘›2
(b) ๐‘™๐‘›2 2 ๐‘ฅ
(c) โœ” 2 ๐‘ฅ ๐‘™๐‘›2
(d) 2 ๐‘ฅ
3. If ๐’š = ๐’†๐Ÿ๐’™ , then ๐’š๐Ÿ =
(a) ๐‘’ 2๐‘ฅ
(b) 2๐‘’2๐‘ฅ
(c) โœ”4 ๐‘’2๐‘ฅ
(d) 16 ๐‘’ 2๐‘ฅ
4. ๐’… ๐’…๐’™ (๐’‚๐’™ + ๐’ƒ) ๐’ =
(a) ๐‘›(๐‘Ž๐‘›−1๐‘ฅ + ๐‘)
(b) ๐‘›(๐‘Ž๐‘ฅ + ๐‘) ๐‘›−1
(c) ๐‘›(๐‘Ž๐‘›−1๐‘ฅ)
(d) โœ” ๐‘›๐‘Ž(๐‘Ž๐‘ฅ + ๐‘) ๐‘›−1
5. The change in variable ๐’™ is called increment of ๐’™.It is denoted by ๐œน๐’™ which is
(a) +iv only
(b) –iv only
(c) โœ” +iv or –iv
(d) none of these
6. The notation ๐’…๐’š ๐’…๐’™ or ๐’…๐’‡ ๐’…๐’™ is used by
(a) โœ”Leibnitz
(b) Newton
(c)Lagrange
(d) Cauchy
7. The notation ๐’‡ฬ‡(๐’™) is used by
(a) Leibnitz
(b) โœ” Newton
(c) Lagrange
(d) Cauchy
8. The notation ๐’‡ ′ (๐’™) or ๐’š ′ is used by
(a) Leibnitz
(b) Newton
(c) โœ” Lagrange
(d) Cauchy
9. The notation ๐‘ซ๐’‡(๐’™) or ๐‘ซ๐’š is used by
(a) Leibnitz
(b) Newton
(c) Lagrange
(d) โœ” Cauchy
1. If ๐’š = ๐’‡(๐’™), then differential of ๐’š is
(a) ๐‘‘๐‘ฆ = ๐‘“′ (๐‘ฅ)
(b) โœ” ๐‘‘๐‘ฆ = ๐‘“′ (๐‘ฅ)๐‘‘๐‘ฅ
(c) ๐‘‘๐‘ฆ = ๐‘“(๐‘ฅ)๐‘‘๐‘ฅ
(d) ๐‘‘๐‘ฆ ๐‘‘๐‘ฅ
2. If ∫ ๐’‡(๐’™)๐’…๐’™ = ๐‹(๐’™) + ๐’„ ,then ๐’‡(๐’™) is called
(a) Integral
(b) differential
(c) derivative
(d) โœ” integrand
3. If ๐’ ≠ ๐Ÿ, then ∫(๐’‚๐’™ + ๐’ƒ) ๐’๐’…๐’™ =
(a) ๐‘›(๐‘Ž๐‘ฅ+๐‘) ๐‘›−1 ๐‘Ž + ๐‘
(b) ๐‘›(๐‘Ž๐‘ฅ+๐‘) ๐‘›+1 ๐‘› + ๐‘
(c) (๐‘Ž๐‘ฅ+๐‘) ๐‘›−1 ๐‘›+1 + ๐‘
(d) โœ” (๐‘Ž๐‘ฅ+๐‘) ๐‘›+1 ๐‘Ž(๐‘›+1) + ๐‘
4. ∫ ๐ฌ๐ข๐ง(๐’‚๐’™ + ๐’ƒ) ๐’…๐’™=
(a) โœ” −1 ๐‘Ž cos(๐‘Ž๐‘ฅ + ๐‘) + ๐‘
(b) 1 ๐‘Ž cos(๐‘Ž๐‘ฅ + ๐‘) + ๐‘
(c) ๐‘Ž cos(๐‘Ž๐‘ฅ + ๐‘) + ๐‘
(d)−๐‘Ž cos(๐‘Ž๐‘ฅ + ๐‘) + ๐‘
5. ∫ ๐’† −๐€๐’™๐’…๐’™ =
(a) ๐œ†๐‘’−๐œ†๐‘ฅ + ๐‘
(b) – ๐œ†๐‘’−๐œ†๐‘ฅ + ๐‘
(c) ๐‘’ −๐œ†๐‘ฅ ๐œ† + ๐‘
(d) โœ” ๐‘’ −๐œ†๐‘ฅ −๐œ† + ๐‘
6. ∫ ๐’‚ ๐€๐’™๐’…๐’™ =
(a) ๐‘Ž ๐œ†๐‘ฅ ๐œ† (b) ๐‘Ž ๐œ†๐‘ฅ ๐‘™๐‘›๐‘Ž
(c) โœ” ๐‘Ž ๐œ†๐‘ฅ ๐‘Ž๐‘™๐‘›๐‘Ž
(d) ๐‘Ž ๐œ†๐‘ฅ๐œ†. ๐‘™๐‘›๐‘Ž
7. ∫[๐’‡(๐’™)] ๐’๐’‡ ′ (๐’™)๐’…๐’™ =
(a) ๐‘“ ๐‘›(๐‘ฅ) ๐‘› + ๐‘
(b) ๐‘“(๐‘ฅ) + ๐‘
(c) โœ” ๐‘“ ๐‘›+1(๐‘ฅ) ๐‘›+1 + ๐‘
(d) ๐‘›๐‘“๐‘›+1(๐‘ฅ) + ๐‘
8. ∫ ๐’‡ ′ (๐’™) ๐’‡(๐’™) ๐’…๐’™ =
(a) ๐‘“(๐‘ฅ) + ๐‘
(b) ๐‘“ ′ (๐‘ฅ) + ๐‘
(c) โœ”ln|๐‘ฅ| + ๐‘ (nd) ln|๐‘“ ′ (๐‘ฅ)| + ๐‘
9. ∫ ๐’…๐’™ √๐’™+๐’‚+√๐’™ can be evaluated if
(a) โœ”๐‘ฅ > 0, ๐‘Ž > 0
(b) ๐‘ฅ < 0, ๐‘Ž > 0
(c) ๐‘ฅ < 0, ๐‘Ž < 0
(d) ๐‘ฅ > 0, ๐‘Ž < 0
10. ∫ ๐’™ √๐’™ ๐Ÿ+๐Ÿ‘ ๐’…๐’™ =
(a) โœ”√๐‘ฅ 2 + 3 + ๐‘
(b) −√๐‘ฅ 2 + 3 + ๐‘
(c) √๐‘ฅ2+3 2 + ๐‘
(d) − 1 2 √๐‘ฅ 2 + 3 + ๐‘
11. ∫ ๐’† ๐’™ ๐Ÿ . ๐’™๐’…๐’™ =
(a) ๐‘Ž ๐‘ฅ 2 ๐‘™๐‘›๐‘Ž + ๐‘
(b) โœ” ๐‘Ž ๐‘ฅ 2 2๐‘™๐‘›๐‘Ž + ๐‘
(c) ๐‘Ž ๐‘ฅ 2 ๐‘™๐‘›๐‘Ž + ๐‘
(d) ๐‘Ž ๐‘ฅ 2 2 + ๐‘
12. ∫ ๐’† ๐’‚๐’™[๐’‚๐’‡(๐’™) + ๐’‡′ (๐’™)]๐’…๐’™ =
(a) โœ”๐‘’ ๐‘Ž๐‘ฅ๐‘“(๐‘ฅ) + ๐‘
(b) ๐‘’ ๐‘Ž๐‘ฅ๐‘“ ′ (๐‘ฅ) + ๐‘
(c) ๐‘Ž๐‘’๐‘Ž๐‘ฅ๐‘“(๐‘ฅ) + ๐‘
(d) ๐‘Ž๐‘’๐‘Ž๐‘ฅ๐‘“ ′ (๐‘ฅ) + ๐‘
13. ∫ ๐’† ๐’™ [๐’”๐’Š๐’๐’™ + ๐’„๐’๐’”]๐’…๐’™ =
(a) โœ”๐‘’ ๐‘ฅ ๐‘ ๐‘–๐‘›๐‘ฅ + ๐‘
(b) ๐‘’ ๐‘ฅ ๐‘๐‘œ๐‘  + ๐‘
(c) – ๐‘’๐‘ฅ ๐‘ ๐‘–๐‘›๐‘ฅ + ๐‘
(d) – ๐‘’๐‘ฅ ๐‘๐‘œ๐‘ ๐‘ฅ + ๐‘
14. To determine the area under the curve by the use of integration , the idea was given by
(a) Newton
(b) โœ” Archimedes
(c) Leibnitz
(d) Taylor
15. The order of the differential equation : ๐’™ ๐’… ๐Ÿ๐’š ๐’…๐’™๐Ÿ + ๐’…๐’š ๐’…๐’™ − ๐Ÿ = ๐ŸŽ
(a) 0
(b) 1
(c) โœ” 2
(d) more than 2
16. The equation ๐’š = ๐’™๐Ÿ − ๐Ÿ๐’™ + ๐’„ represents ( ๐’„ being a parameter )
(a) One parabola
(b) family of parabolas
(c) family of line
(d) two parabolas
17. ∫ ๐’† ๐’”๐’Š๐’๐’™. ๐’„๐’๐’”๐’™๐’…๐’™ =
(a) โœ”๐‘’ ๐‘ ๐‘–๐‘›๐‘ฅ + ๐‘
(b) ๐‘’ ๐‘๐‘œ๐‘ ๐‘ฅ + ๐‘
(c) ๐‘’ ๐‘ ๐‘–๐‘›๐‘ฅ ๐‘๐‘œ๐‘ ๐‘ฅ
(d) ๐‘’ ๐‘๐‘œ๐‘ ๐‘ฅ ๐‘ ๐‘–๐‘›๐‘ฅ
18. ∫(๐Ÿ๐’™ + ๐Ÿ‘) ๐Ÿ ๐Ÿ๐’…๐’™ =
(a) 1 3 (2๐‘ฅ + 3) 3 2
(b) 1 3 (2๐‘ฅ + 3) − 1 2
(c) 1 3 (2๐‘ฅ + 3)
(d) None
19. ∫ ๐’™ ๐’๐’…๐’™ = ๐’™ +๐Ÿ ๐’+๐Ÿ + ๐’„ is true for all values of ๐’ except
(a) ๐‘› = 0
(b) ๐‘› = 1
(c) โœ”๐‘› ≠ −1
(d) ๐‘› = ๐‘Ž๐‘›๐‘ฆ ๐‘“๐‘Ÿ๐‘Ž๐‘๐‘ก๐‘–๐‘œ๐‘›๐‘Ž๐‘™ ๐‘ฃ๐‘Ž๐‘™๐‘ข๐‘’
20. ∫ ๐’‚ ๐’™๐’…๐’™ = ๐Ÿ ๐Ÿ
(a) (๐‘Ž 2 − ๐‘Ž)๐‘™๐‘›๐‘Ž
(b) โœ” (๐‘Ž2−๐‘Ž) ๐‘™๐‘›๐‘Ž
(c) (๐‘Ž2−๐‘Ž) log ๐‘Ž
(d) (๐‘Ž 2 − ๐‘Ž)๐‘™๐‘›๏ฟฝ
๐‘ฐ๐’‡ ๐’™ < 0, ๐‘ฆ < 0 then the point ๐‘ท(๐’™, ๐’š) lies in the quadrant
(a) I
(b) II
(c) โœ” III
(d) IV
2. The point P in the plane that corresponds to the ordered pair (๐’™, ๐’š) is called:
(a) โœ”๐‘”๐‘Ÿ๐‘Ž๐‘โ„Ž ๐‘œ๐‘“ (๐‘ฅ, ๐‘ฆ)
(b) mid-point of ๐‘ฅ, ๐‘ฆ
(c) ๐‘Ž๐‘๐‘ ๐‘๐‘–๐‘ ๐‘ ๐‘Ž ๐‘œ๐‘“ ๐‘ฅ, ๐‘ฆ
(d) ordinate of ๐‘ฅ, ๐‘ฆ
3. If ๐’™ < 0 , ๐‘ฆ > 0 then the point ๐‘ท(−๐’™, −๐’š) lies in the quadrant
(a) I
(b) II
(c) III
(d) โœ” IV
4. The straight line which passes through one vertex and though the mid-point of the opposite side is
called:
(a) โœ”Median
(b) altitude
(c) perpendicular bisector
(d) normal
5. The straight line which passes through one vertex and perpendicular to opposite side is called:
(a) Median
(b) โœ” altitude
(c) perpendicular bisector
(d) normal
6. The point where the medians of a triangle intersect is called_________ of the triangle
. (a) โœ”Centroid
(b) centre
(c) orthocenter
(d) circumference
7. The point where the altitudes of a triangle intersect is called_________ of the triangle.
(a) Centroid
(b) centre
(c) โœ” orthocenter
(d) circumference
8. The centroid of a triangle divides each median in the ration of
(a) โœ”2:1
(b) 1:2
(c) 1:1
(d) None of these
9. The point where the angle bisectors of a triangle intersect is called_________ of the triangle.
(a) Centroid
(b) โœ”in centre
(c) orthocenter
(d) circumference
10. If ๐’™ and ๐’š have opposite signs then the point ๐‘ท(๐’™, ๐’š) lies the quadrants
(a) I & II
(b) I & III
(c) โœ” II & IV
(d) I & IV
11. A line bisecting 2nd and 4th quadrants has inclination:
(a) 0°
(b) 45°
(c) โœ” 135°
(d) ∞
12. ๐’š = ๐’™ is the straight line
(a) โœ”Bisecting I & III
(b) parallel to ๐‘ฅ − ๐‘Ž๐‘ฅ๐‘–๐‘ฅ
(c) bisecting II & IV
(d) parallel to ๐‘ฆ – ๐‘Ž๐‘ฅ๐‘–๐‘ 
13. If all the sides of four sided polygon are equal but the four angles are not equal to ๐Ÿ—๐ŸŽ° each then it
is a
(a) Kite
(b) โœ” rhombus
(c) ||gram
(d) trapezoid
1. The solution of ๐’‚๐’™ + ๐’ƒ < ๐‘ is
(a) Closed half plane
(b) โœ” open half plane
(c) circle
(d) parabola
2. A function which is to be maximized or minimized is called______ function
(a) Subjective
(b) โœ” objective
(c) qualitative
(d) quantitative
3. The number of variables in ๐’‚๐’™ + ๐’ƒ๐’š ≤ ๐’„ are
(a) 1
(b) โœ” 2
(c) 3
(d) 4
4. (0,0) is the solution of the inequality
(a) 7๐‘ฅ + 2๐‘ฆ > 0
(b) 2๐‘ฅ − ๐‘ฆ > 0
(c) โœ” ๐‘ฅ + ๐‘ฆ ≥ 0
(d) 3๐‘ฅ + 5๐‘ฆ < 0
5. (0,0) is satisfied by
(a) ๐‘ฅ − ๐‘ฆ < 10
(b) 2๐‘ฅ + 5๐‘ฆ > 10
(c) โœ” ๐‘ฅ − ๐‘ฆ ≥ 13
(d) None
6. The point where two boundary lines of a shaded region intersect is called _____ point.
(a) Boundary
(b) โœ” corner
(c) stationary
(d) feasible
7. If ๐’™ > ๐‘ then
(a) – ๐‘ฅ > −๐‘
(b) – ๐‘ฅ < ๐‘
(c) ๐‘ฅ < ๐‘
(d) โœ” – ๐‘ฅ < −๐‘
8. The symbols used for inequality are
(a) 1
(b) 2
(c) 3
(d) โœ”4
9. A linear inequality contains at least _________ variables.
(a) โœ”One
(b) two
(c) three
(d) more than three
10. An inequality with one or two variables has ________ solutions.
(a) One
(b) two
(c) three
(d) โœ”infinitely many
11. ๐’‚๐’™ + ๐’ƒ๐’š < ๐‘ is not a linear inequality if
(a) โœ”๐‘Ž = 0, ๐‘ = 0
(b) ๐‘Ž ≠ 0 , ๐‘ ≠ 0
(c) ๐‘Ž = 0, ๐‘ ≠ 0
(d) ๐‘Ž ≠ 0, ๐‘ = 0, ๐‘ = 0
12. The graph of corresponding linear equation of the linear inequality is a line called________
(a) โœ”Boundary line
(b) horizontal line
(c) vertical line
(d) inclined line
13. The graph of a linear equation of the form ๐’‚๐’™ + ๐’ƒ๐’š = ๐’„ is a line which divides the whole plane into
______ disjoints parts.
(a) โœ”Two
(b) four
(c) more than four
(d) infinitely many
14. The graph of the inequality ๐’™ ≤ ๐’ƒ is
(a) Upper half plane
(b) lower half plane
(c) โœ” left half plane
(d) right half plane
15. The graph of the inequality ๐’š ≤ ๐’ƒ is
(a) Upper half plane
(b) โœ” lower half plane
(c) left half plane
(d) right half plane
16. The graph of the inequality ๐’‚๐’™ + ๐’ƒ๐’š ≤ ๐’„ is _____ side of line ๐’‚๐’™ + ๐’ƒ๐’š = ๐’„
(a) โœ”Origin side (b) non-origin side
(c) upper
(d) lower
17. The graph of the inequality ๐’‚๐’™ + ๐’ƒ๐’š ≥ ๐’„ is _____ side of line ๐’‚๐’™ + ๐’ƒ๐’š = ๐’„
(a) Origin side
(b) โœ” non-origin side
(c) upper
(d) left
18. The feasible solution which maximizes or minimizes the objective function is called
(a) Exact solution
(b) โœ” optimal solution
(c) final solution
(d) objective function
19. Solution space consisting of all feasible solutions of system of linear in inequalities is called
(a) Feasible solution
(b) Optimal solution
(c) โœ” Feasible region
(d) General solution
20. Corner point is also called
(a) Origin
(b) Focus
(c) โœ” Vertex
(d) Test point
21. For feasible region:
(a) โœ”๐‘ฅ ≥ 0, ๐‘ฆ ≥ 0
(b) ๐‘ฅ ≥ 0, ๐‘ฆ ≤ 0
(c) ๐‘ฅ ≤ 0, ๐‘ฆ ≥ 0
(d) ๐‘ฅ ≤ 0, ๐‘ฆ ≤ 0
22. ๐’™ = ๐ŸŽ is in the solution of the inequality
(a) ๐‘ฅ < 0
(b) ๐‘ฅ + 4 < 0
(c) โœ”2๐‘ฅ + 3 > 0
(d)2๐‘ฅ + 3 < 0
23. Linear inequality ๐Ÿ๐’™ − ๐Ÿ•๐’š > 3 is satisfied by the point
(a) (5,1)
(b) (-5,-1)
(c) (0,0)
(d) โœ” (1,-1)
24. The non-negative constraints are also called
(a) โœ”Decision variable
(b) Convex variable
(c) Decision constraints
(d) concave variable
25. If the line segment obtained by joining any two points of a region lies entirely within the region ,
then the region is called
(a) Feasible region
(b) โœ” Convex region
(c) Solution region
(d) Concave region
1. The locus of a revolving line with one end fixed and other end on the circumference of a circle of a
circle is called:
(a) a sphere
(b) a circle
(c) โœ”a cone
(d) a conic
2. The set of points which are equal distance from a fixed point is called:
(a) โœ”Circle
(b) Parabola
(c) Ellipse
(d) Hyperbola
3. The circle whose radius is zero is called:
(a) Unit circle
(b) โœ”point circle
(c) circumcircle
(d) in-circle
4. The circle whose radius is 1 is called:
(a) โœ”Unit circle
(b) point circle
(c) circumcircle
(d) in-circle
5. The equation ๐’™ ๐Ÿ + ๐’š๐Ÿ + ๐Ÿ๐’ˆ๐’™ + ๐Ÿ๐’‡๐’š + ๐’„ = ๐ŸŽ represents the circle with centre
(a) (๐‘”, ๐‘“)
(b) โœ” (−๐‘”, −๐‘“)
(c) (−๐‘“, −๐‘”)
(d) (๐‘”, −๐‘“)
6. The equation ๐’™ ๐Ÿ + ๐’š๐Ÿ + ๐Ÿ๐’ˆ๐’™ + ๐Ÿ๐’‡๐’š + ๐’„ = ๐ŸŽ represents the circle with centre
(a) โœ”√๐‘”2 + ๐‘“2 − ๐‘
(b) √๐‘”2 + ๐‘“2 + ๐‘
(c) √๐‘”2 + ๐‘2 – ๐‘“
(d) √๐‘” + ๐‘“ − ๐‘
7. The angle inscribed in semi-circle is:
(a) โœ” ๐œ‹ 2
(b) ๐œ‹ 3
(c) ๐œ‹ 4
(d) None of these
8. For any parabola in the standard form , if the directrix is ๐’™ = ๐’‚ , then its equation is
(a) ๐‘ฆ 2 = 4๐‘Ž๐‘ฅ
(b) โœ” ๐‘ฆ 2 = −4๐‘Ž๐‘ฅ
(c) ๐‘ฅ 2 = 4๐‘Ž๐‘ฆ
(d) ๐‘ฅ 2 = −4๐‘Ž๐‘ฆ
9. For any parabola in the standard form , if the directrix is ๐’™ = −๐’‚ , then its equation is
(a) โœ”๐‘ฆ 2 = 4๐‘Ž๐‘ฅ
(b) ๐‘ฆ 2 = −4๐‘Ž๐‘ฅ
(c) ๐‘ฅ 2 = 4๐‘Ž๐‘ฆ
(d) ๐‘ฅ 2 = −4๐‘Ž๐‘ฆ
10. For any parabola in the standard form , if the directrix is ๐’š = ๐’‚ , then its equation is
(a) ๐‘ฆ 2 = 4๐‘Ž๐‘ฅ
(b) ๐‘ฆ 2 = −4๐‘Ž๐‘ฅ
(c) ๐‘ฅ 2 = 4๐‘Ž๐‘ฆ
(d) โœ” ๐‘ฅ 2 = −4๐‘Ž๐‘ฆ
11. For any parabola in the standard form , if the directrix is ๐’š = −๐’‚ , then its equation is
(a) ๐‘ฆ 2 = 4๐‘Ž๐‘ฅ
(b) ๐‘ฆ 2 = −4๐‘Ž๐‘ฅ
(c) โœ” ๐‘ฅ 2 = 4๐‘Ž๐‘ฆ
(d) ๐‘ฅ 2 = −4๐‘Ž๐‘ฆ
12. All lines through vertex and points on circle generate a
(a) โœ”Circle
(b) Ellipse
(c) Circular cone
(d) None of these
13. The equation ๐’™ ๐Ÿ + ๐’š๐Ÿ = ๐ŸŽ then circle is
(a) โœ”Point Circle
(b) Unit Circle
(c) Real circle
(d) Imaginary Circle
14. The line perpendicular to the tangent at any point ๐‘ท(๐’™, ๐’š) is known as;
(a) Tangent line
(b) โœ” Normal at ๐‘ƒ
(c) Slope of tangent
(d) None of these
15. The point ๐‘ท(−๐Ÿ“, ๐Ÿ”) lies __________ the circle ๐’™ ๐Ÿ + ๐’š๐Ÿ + ๐Ÿ’๐’™ − ๐Ÿ”๐’š = ๐Ÿ๐Ÿ
(a) โœ”Inside
(b) Outside
(c) On
(d) None of these
16. The chord containing the centre of the circle is
(a) Radius of circle
(b) โœ”Diameter of circle
(c) Area of circle
(d) Tangent of circle
17. The ratio of the distance of a point from the focus to distance from the directrix is denoted by
(a) โœ”๐‘Ÿ
(b) ๐‘…
(c) ๐ธ
(d)e
18. Standard equation of Parabola is :
(a) ๐‘ฆ 2 = 4๐‘Ž
(b) ๐‘ฅ 2 + ๐‘ฆ2 = ๐‘Ž2
(c) โœ” ๐‘ฆ 2 = 4๐‘Ž๐‘ฅ
(d) ๐‘† = ๐‘ฃ๐‘ก
19. The focal chord is a chord which is passing through
(a) โœ”Vertex
(b) Focus
(c) Origin
(d) None of these
20. The curve ๐’š ๐Ÿ = ๐Ÿ’๐’‚๐’™ is symmetric about
(a) โœ”๐‘ฆ – ๐‘Ž๐‘ฅ๐‘–๐‘ 
(b) ๐‘ฅ – ๐‘Ž๐‘ฅ๐‘–๐‘ 
(c) Both (a) and (b)
(d) None of these
The vector whose magnitude is 1 is called
(a) Null vector
(b) โœ” unit vector
(c) free vector
(d) scalar
3. Two vectors are said to be negative of each other if they have the same magnitude and
__________direction.
(a) Same
(b) โœ” opposite
(c) negative
(d) parallel
4. Parallelogram law of vector addition to describe the combined action of two forces, was used by
(a) Cauchy
(b) โœ” Aristotle
(c) Alkhwarzmi
(d) Leibnitz
5. The vector whose initial point is at the origin and terminal point is ๐‘ท , is called
(a) Null vector
(b) unit vector
(c) โœ”position vector
(d) normal vector
6. If ๐‘น be the set of real numbers, then the Cartesian plane is defined as
(a) ๐‘… 2 = {(๐‘ฅ 2 , ๐‘ฆ2 ): ๐‘ฅ, ๐‘ฆ ∈ ๐‘…}
(b) โœ” ๐‘… 2 = {(๐‘ฅ, ๐‘ฆ): ๐‘ฅ, ๐‘ฆ ∈ ๐‘…}
(c) ๐‘… 2 = {(๐‘ฅ, ๐‘ฆ): ๐‘ฅ, ๐‘ฆ ∈ ๐‘…, ๐‘ฅ = −๐‘ฆ}
(d) ๐‘…2 = {(๐‘ฅ, ๐‘ฆ): ๐‘ฅ, ๐‘ฆ ∈ ๐‘…, ๐‘ฅ = ๐‘ฆ}
7. The element (๐’™, ๐’š) ∈ ๐‘น๐Ÿ represents a
(a) Space
(b) โœ” point
(c) vector
(d) line
8. If ๐’– = [๐’™, ๐’š] in ๐‘น ๐Ÿ , then |๐’–| =?
(a) ๐‘ฅ 2 + ๐‘ฆ2
(b) โœ” √๐‘ฅ 2 + ๐‘ฆ2
(c) ±√๐‘ฅ 2 + ๐‘ฆ2
(d) ๐‘ฅ 2 − ๐‘ฆ2
9. If |๐’–| = √๐’™๐Ÿ + ๐’š๐Ÿ = ๐ŸŽ, then it must be true that
(a) ๐‘ฅ ≥ 0, ๐‘ฆ ≥ 0
(b) ๐‘ฅ ≤ 0, ๐‘ฆ ≤ 0
(c) ๐‘ฅ ≥ 0, ๐‘ฆ ≤ 0
(d) โœ” ๐‘ฅ = 0, ๐‘ฆ = 0
10. Each vector [๐’™, ๐’š]in ๐‘น ๐Ÿ can be uniquely represented as
(a) ๐‘ฅ๐‘– – ๐‘ฆ๐‘—
(b) โœ” ๐‘ฅ๐‘– + ๐‘ฆ๐‘—
(c) ๐‘ฅ + ๐‘ฆ
(d) √๐‘ฅ 2 + ๐‘ฆ2
11. The lines joining the mid-points of any two sides of a triangle is always _____to the third side.
(a) Equal
(b) โœ” Parallel
(c) perpendicular
(d) base
12. A point P in space has __________ coordinates.
(a) 1
(b) 2
(c) โœ” 3
(d) infinitely many
13. In space the vector ๐’Š can be written as
(a) โœ” (1,0,0)
(b) (0,1,0)
(c) (0,0,1)
(d) (1,0)
14. In space the vector ๐’‹ can be written as
(a) (1,0,0)
(b) โœ” (0,1,0)
(c) (0,0,1)
(d) (1,0)
15. In space the vector ๐’Œ can be written as
(a) (1,0,0)
(b) (0,1,0)
(c) โœ” (0,0,1)
(d) (1,0)
16. ๐’– = ๐Ÿ๐’Š + ๐Ÿ‘๐’‹ + ๐’Œ,๐’— = −๐Ÿ”๐’Š − ๐Ÿ—๐’‹ − ๐Ÿ‘๐’Œ are _________vectors.
(a) โœ”Parallel
(b)perpendicular
(c) reciprocal
(d) negative
17. The angles ๐œถ, ๐œท, ๐’‚๐’๐’… ๐œธ which a non-zero vector ๐’“ makes with ๐’™ − ๐’‚๐’™๐’Š๐’”, ๐’š − ๐’‚๐’™๐’Š๐’” and ๐’› − ๐’‚๐’™๐’Š๐’”
respectively are called_____________ of ๐’“.
(a) Direction cosines
(b) direction ratios
(c) โœ” direction angles
(d) inclinations
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