Calculus Questions

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5 points and the trigonometric expression cos 2 2 A u can t use a calculator where 0 A F
Calculus
Definite Integrals
5 points and the trigonometric expression cos 2 2 A u can t use a calculator where 0 A F
1 Use the graph of g x shown to the right to answer the following questions A lim 9 x B lim g x C lim g x 111 D miT 10touder I sio C libero om 6 A omak 1 3 2 1 y g x 1 2 g 1 Hoy of inpiroqni ai phigini la tag of vow to Host 3 4
Calculus
Limits & Continuity
1 Use the graph of g x shown to the right to answer the following questions A lim 9 x B lim g x C lim g x 111 D miT 10touder I sio C libero om 6 A omak 1 3 2 1 y g x 1 2 g 1 Hoy of inpiroqni ai phigini la tag of vow to Host 3 4
d the inverse function of f x 3 x 3 for x 20 You need to write it as an explicit form
Calculus
Differentiation
d the inverse function of f x 3 x 3 for x 20 You need to write it as an explicit form
x 9 9 Given f x 7 3x A Find lim x 818 B Find lim f x 0 C Find lim f x 2 0
Calculus
Limits & Continuity
x 9 9 Given f x 7 3x A Find lim x 818 B Find lim f x 0 C Find lim f x 2 0
3x xoo x 5x 10 Find lim rose etning 2 e x 1 0 e 1 11 Find lim
Calculus
Limits & Continuity
3x xoo x 5x 10 Find lim rose etning 2 e x 1 0 e 1 11 Find lim
7 Assume c 0 find lim 1 X Vcx 1 1
Calculus
Vector Calculus
7 Assume c 0 find lim 1 X Vcx 1 1
2 Given f x x 12 and g x x 3 5 points svin sit worb A Find fog 5 points Smotenont Find gof 5 points
Calculus
Application of derivatives
2 Given f x x 12 and g x x 3 5 points svin sit worb A Find fog 5 points Smotenont Find gof 5 points
olve the A log6x 2 x
Calculus
Limits & Continuity
olve the A log6x 2 x
Given f x 8 3x6 1 3 Find lim e
Calculus
Application of derivatives
Given f x 8 3x6 1 3 Find lim e
What are the minimum and maximum values of x for which x x 6x 0 O minimum 3 maximum 0 O minimum 0 maximum 2 O minimum 3 no maximum minimum 2 no maximum
Calculus
Application of derivatives
What are the minimum and maximum values of x for which x x 6x 0 O minimum 3 maximum 0 O minimum 0 maximum 2 O minimum 3 no maximum minimum 2 no maximum
Solve the triangle using the Law of Sines Assume b and c 19 and ZC 63 Round the length to two decimal places a LA 28 A B
Calculus
Indefinite Integration
Solve the triangle using the Law of Sines Assume b and c 19 and ZC 63 Round the length to two decimal places a LA 28 A B
Evaluate the integral 2 7x in x dx 7x In x dx 2
Calculus
Vector Calculus
Evaluate the integral 2 7x in x dx 7x In x dx 2
Evaluate the integral using integration by parts Jo 60 6e 60 6e sin 60 de sin 60 d0
Calculus
Indefinite Integration
Evaluate the integral using integration by parts Jo 60 6e 60 6e sin 60 de sin 60 d0
Evaluate the integral by using a substitution prior to integration by parts Se 5m 5m 9 5m 9 dm
Calculus
Application of derivatives
Evaluate the integral by using a substitution prior to integration by parts Se 5m 5m 9 5m 9 dm
Evaluate the integral using integration by parts e5 S x In x dx 5 x5 In x In x dx
Calculus
Definite Integrals
Evaluate the integral using integration by parts e5 S x In x dx 5 x5 In x In x dx
Sketch the triangle 28 32 2C 48 b 45 CH A C 45 329 B to 18 A 45 48 32 B C C 45 A 32 B 18 Solve the triangle using the Law of Sines Round side lengths to the nearest Integer a 45 32 48 A B
Calculus
Application of derivatives
Sketch the triangle 28 32 2C 48 b 45 CH A C 45 329 B to 18 A 45 48 32 B C C 45 A 32 B 18 Solve the triangle using the Law of Sines Round side lengths to the nearest Integer a 45 32 48 A B
Evaluate the integral 3x secx 0x 2 dx 2 3x see x dx
Calculus
Application of derivatives
Evaluate the integral 3x secx 0x 2 dx 2 3x see x dx
Solve the triangle using the Law of Sines Assume c 60 ZA 48 and 28 15 Round lengths to two decimal places x x X ZC U B
Calculus
Application of derivatives
Solve the triangle using the Law of Sines Assume c 60 ZA 48 and 28 15 Round lengths to two decimal places x x X ZC U B
Evaluate the integral using integration by parts fxsin x dx x sin x dx
Calculus
Application of derivatives
Evaluate the integral using integration by parts fxsin x dx x sin x dx
Evaluate the integral using integration by parts xetax x e x dax
Calculus
Vector Calculus
Evaluate the integral using integration by parts xetax x e x dax
Evaluate the integral using integration by parts Sen xe x dx 6x dx
Calculus
Limits & Continuity
Evaluate the integral using integration by parts Sen xe x dx 6x dx
What is the solution of x x 9 x 1 X 3 2 1 0 3 TT 3 3 2 31 L 0 0 2 1 1 2 2 2 3 3 43 3 4 4
Calculus
Application of derivatives
What is the solution of x x 9 x 1 X 3 2 1 0 3 TT 3 3 2 31 L 0 0 2 1 1 2 2 2 3 3 43 3 4 4
1 4 7 10 12 6 16 x 3sinx e C 18 tan x sec x C 440 S 4 cos cos x C 12 cos2x ax b 3a 14 20 2 tan x x 3 sec x C 22 A 17 log x 2x C MATHEMATICS 2 c x 4 x 8 C 1 m log x 1 m 2 C 5 C 2 5 9 1 15 sin 3x ax 8 at by a C 9 3x C 18 3 ax b C 7 x 2 x 2 C 3a 6 EXERCISE 7 2 4a 1 4 17 19 tan x x C 21 C 2 ax b C Rationalised 2023 24 logi x C 3 log 1 log x C cos cos 2 a ONCERT not to be republished 10 log19 4x 1 C 16 10 2log x 1 C 1 18 2 3x pe 19 log e e C
Calculus
Definite Integrals
1 4 7 10 12 6 16 x 3sinx e C 18 tan x sec x C 440 S 4 cos cos x C 12 cos2x ax b 3a 14 20 2 tan x x 3 sec x C 22 A 17 log x 2x C MATHEMATICS 2 c x 4 x 8 C 1 m log x 1 m 2 C 5 C 2 5 9 1 15 sin 3x ax 8 at by a C 9 3x C 18 3 ax b C 7 x 2 x 2 C 3a 6 EXERCISE 7 2 4a 1 4 17 19 tan x x C 21 C 2 ax b C Rationalised 2023 24 logi x C 3 log 1 log x C cos cos 2 a ONCERT not to be republished 10 log19 4x 1 C 16 10 2log x 1 C 1 18 2 3x pe 19 log e e C
E be the event at least two heads appear and F be the event first coin shows tail Then and Therefore and 1 Since the coins are fair we can assign the probability to each sample point Let Also with or E HHH HHT HTH THH F THH THT TTH TTT P E P HHH P HHT P HTH P THH Thus 1 1 111 Why 88 882 P F P THH P THT P TTH P TTT 408 11111 8 8 8 8 2 P EF P THH Now suppose we are given that the first coin shows tail i e F occurs then what is the probability of occurrence of E With the information of occurrence of F we are sure that the cases in which first coin does not result into a tail should not be considered while finding the probability of E This information reduces our sample space from the set S to its subset F for the event E In other words the additional information really amounts to telling us that the situation may be considered as being that of a new random experiment for which the sample space consists of all those outcomes only which are favourable to the occurrence of the event F Now the sample point of F which is favourable to event E is THH 1 Thus Probability of E considering F as the sample space 4 EnF THH 1 Probability of E given that the event F has occurred 4 This probability of the event E is called the conditional probability of E given that F has already occurred and is denoted by P EIF P EIF MATHEMATICS Note that the elements of F which favour the event E are the common elements of E and F i e the sample points of En F RT 1 P EIF Thus we can also write the conditional probability of E given that F has occurred as Number of elementary events favourable to EnF Number of elementary events which are favourable to F n EF n F Rationalised 2023 24 blished Dividing the numerator and the denominator by total number of elementary events of the sample space we see that P EIF can also be written as n EnF n S n F n S Note that 1 is valid only when P F 0 i e F Why P EIF P EF P F hed 1
Calculus
Definite Integrals
E be the event at least two heads appear and F be the event first coin shows tail Then and Therefore and 1 Since the coins are fair we can assign the probability to each sample point Let Also with or E HHH HHT HTH THH F THH THT TTH TTT P E P HHH P HHT P HTH P THH Thus 1 1 111 Why 88 882 P F P THH P THT P TTH P TTT 408 11111 8 8 8 8 2 P EF P THH Now suppose we are given that the first coin shows tail i e F occurs then what is the probability of occurrence of E With the information of occurrence of F we are sure that the cases in which first coin does not result into a tail should not be considered while finding the probability of E This information reduces our sample space from the set S to its subset F for the event E In other words the additional information really amounts to telling us that the situation may be considered as being that of a new random experiment for which the sample space consists of all those outcomes only which are favourable to the occurrence of the event F Now the sample point of F which is favourable to event E is THH 1 Thus Probability of E considering F as the sample space 4 EnF THH 1 Probability of E given that the event F has occurred 4 This probability of the event E is called the conditional probability of E given that F has already occurred and is denoted by P EIF P EIF MATHEMATICS Note that the elements of F which favour the event E are the common elements of E and F i e the sample points of En F RT 1 P EIF Thus we can also write the conditional probability of E given that F has occurred as Number of elementary events favourable to EnF Number of elementary events which are favourable to F n EF n F Rationalised 2023 24 blished Dividing the numerator and the denominator by total number of elementary events of the sample space we see that P EIF can also be written as n EnF n S n F n S Note that 1 is valid only when P F 0 i e F Why P EIF P EF P F hed 1
1 1 4 Composition of Functions 1 Letf A B and g B C be two functions Then the composition of f and g denoted by g of is defined as the function g of AC given by go f x g y xe A ii Iff A B and g BC are one one then g of A C is also one one iii Iff A B and g BC are onto then g of AC is also onto However converse of above stated results ii and iii need not be true Moreover we have the following results in this direction iv Letf A B and g BC be the given functions such that g of Then fis one one v Letf A B and g BC be the given functions such that g is onto ER 1 1 5 Invertible Function 1 A function f X Y is defined to be invertible if there exists a function g Y X such that g of 1 and fog 1 The function g is called the inverse of fand is denoted by f ii A function f X Y is invertible if and only if f is a bijective function blated one one is onto Then i If f X Y g Y Z and h Z S are functions then ho gof hog of iv Let f X Y and g Y Z be two invertible functions Then g of is also invertible with gof fog 1 1 6 Binary Operations i A binary operation on a set A is a function AxA A We denote a b by a b ii A binary operation on the set X is called commutative if a b ba for every a be X iii A binary operation A x AA is said to be associative if a b c a b c for every a b c e A iv Given a binary operation AxAA an elemente e A if it exists is called identity for the operation if ae a e a ya A 1 2 Solved Examples Short Answer S A Example 1 Let A 0 1 2 3 and define a relation R on A as follows R 0 0 0 1 0 3 1 0 1 1 2 2 3 0 3 3 Is R reflexive symmetric transitive RELATIONS AND FUNCTIONS 3 v Given a binary operation A x AA with the identity element e in A an element a A is said to be invertible with respect to the operation if there exists an element b in A such that a b e ba and b is called the inverse of a and is denoted by a Solution R is reflexive and symmetric but not transitive since for 1 0 3 e R whereas 1 3 Example 2 For the set A 20 04 2018 R and R 11 2 3 define a relation R in the set A as follows
Calculus
Definite Integrals
1 1 4 Composition of Functions 1 Letf A B and g B C be two functions Then the composition of f and g denoted by g of is defined as the function g of AC given by go f x g y xe A ii Iff A B and g BC are one one then g of A C is also one one iii Iff A B and g BC are onto then g of AC is also onto However converse of above stated results ii and iii need not be true Moreover we have the following results in this direction iv Letf A B and g BC be the given functions such that g of Then fis one one v Letf A B and g BC be the given functions such that g is onto ER 1 1 5 Invertible Function 1 A function f X Y is defined to be invertible if there exists a function g Y X such that g of 1 and fog 1 The function g is called the inverse of fand is denoted by f ii A function f X Y is invertible if and only if f is a bijective function blated one one is onto Then i If f X Y g Y Z and h Z S are functions then ho gof hog of iv Let f X Y and g Y Z be two invertible functions Then g of is also invertible with gof fog 1 1 6 Binary Operations i A binary operation on a set A is a function AxA A We denote a b by a b ii A binary operation on the set X is called commutative if a b ba for every a be X iii A binary operation A x AA is said to be associative if a b c a b c for every a b c e A iv Given a binary operation AxAA an elemente e A if it exists is called identity for the operation if ae a e a ya A 1 2 Solved Examples Short Answer S A Example 1 Let A 0 1 2 3 and define a relation R on A as follows R 0 0 0 1 0 3 1 0 1 1 2 2 3 0 3 3 Is R reflexive symmetric transitive RELATIONS AND FUNCTIONS 3 v Given a binary operation A x AA with the identity element e in A an element a A is said to be invertible with respect to the operation if there exists an element b in A such that a b e ba and b is called the inverse of a and is denoted by a Solution R is reflexive and symmetric but not transitive since for 1 0 3 e R whereas 1 3 Example 2 For the set A 20 04 2018 R and R 11 2 3 define a relation R in the set A as follows
n F Dividing the numerator and the denominator by total number of elementary events of the sample space we see that P EIF can also be written as P EIF Also Note that 1 is valid only when P F 0 i e F Why Thus we can define the conditional probability as follows Definition 1 If E and F are two events associated with random experiment the conditional probability of the event E given that F has occurred i e P EIF is given by P EIF We have n EF n S n F n S P SIF 13 2 1 Properties of conditional probability Let E and F be events of a sample space S of an experiment then we have Property 1 P SIF P FIF 1 We know that P EF P F P FF P F P AUB IF P SOF P F P F P F provided P F 0 P FIF Thus P SIF P FIF 1 Property 2 If A and B are any two events of a sample space S and F is an event of S such that P F 0 then P AUB IF P A F P BIF P AB IF Rationalised 2023 24 P F 1 P F In particular if A and B are disjoint events then P AUB IF P A F P BIF P AUB FI P F same sample space of a Property 3 P EIF 1 P EIF From Property 1 we know that P SIF 1 P EEF 1 pride you P AF U BF P F by distributive law of union of sets over intersection P AF P BOF P AOB OF P F When A and B are disjoint events then P AB IF 0 P AB F P A F P BIF PROBABILITY 409 P AF P BF P AB FJ P F P F P F P A F P BIF P AB IF since SEVE
Calculus
Definite Integrals
n F Dividing the numerator and the denominator by total number of elementary events of the sample space we see that P EIF can also be written as P EIF Also Note that 1 is valid only when P F 0 i e F Why Thus we can define the conditional probability as follows Definition 1 If E and F are two events associated with random experiment the conditional probability of the event E given that F has occurred i e P EIF is given by P EIF We have n EF n S n F n S P SIF 13 2 1 Properties of conditional probability Let E and F be events of a sample space S of an experiment then we have Property 1 P SIF P FIF 1 We know that P EF P F P FF P F P AUB IF P SOF P F P F P F provided P F 0 P FIF Thus P SIF P FIF 1 Property 2 If A and B are any two events of a sample space S and F is an event of S such that P F 0 then P AUB IF P A F P BIF P AB IF Rationalised 2023 24 P F 1 P F In particular if A and B are disjoint events then P AUB IF P A F P BIF P AUB FI P F same sample space of a Property 3 P EIF 1 P EIF From Property 1 we know that P SIF 1 P EEF 1 pride you P AF U BF P F by distributive law of union of sets over intersection P AF P BOF P AOB OF P F When A and B are disjoint events then P AB IF 0 P AB F P A F P BIF PROBABILITY 409 P AF P BF P AB FJ P F P F P F P A F P BIF P AB IF since SEVE
1 4 ax b 3a 7 10 log x 2x C 2 12 14 16 x 3sin x e C 18 tan x sec x C 6 440 20 2 tan x 3 sec x C 22 A C 8 11 4 cos cos x C 5 12 14 17 2 5 MATHEMATICS 8 log x 1 m C ONCERT not to be republished sin 3x 3 9 C 15 2 cx 4a x 4 x 8 C x c 3 EXERCISE 7 2 ax b C 7 x 2 x 2 C 3a 6 2 logixl C 3 log 1 logx C 9 1 cos 2 ax b C Rationalised 2023 24 x x 1 C 17 3 19 tan x x C 21 C 18 C 4 3cos x 10 13 log19 4x 1 C 16 10 2log x 1 C 1 18 2 3x 19 log e e C Ble te 9 C
Calculus
Definite Integrals
1 4 ax b 3a 7 10 log x 2x C 2 12 14 16 x 3sin x e C 18 tan x sec x C 6 440 20 2 tan x 3 sec x C 22 A C 8 11 4 cos cos x C 5 12 14 17 2 5 MATHEMATICS 8 log x 1 m C ONCERT not to be republished sin 3x 3 9 C 15 2 cx 4a x 4 x 8 C x c 3 EXERCISE 7 2 ax b C 7 x 2 x 2 C 3a 6 2 logixl C 3 log 1 logx C 9 1 cos 2 ax b C Rationalised 2023 24 x x 1 C 17 3 19 tan x x C 21 C 18 C 4 3cos x 10 13 log19 4x 1 C 16 10 2log x 1 C 1 18 2 3x 19 log e e C Ble te 9 C
8 4i 8 4i TIE 8 4i 8 4i Simplify your answer Type your answer in the form a bi Type an integer or a f
Calculus
Differentiation
8 4i 8 4i TIE 8 4i 8 4i Simplify your answer Type your answer in the form a bi Type an integer or a f
he given complex number a state the real part B state the imaginary or nonreal complex hat is the real part of 2 979 PUT part and 6 identify the num
Calculus
Application of derivatives
he given complex number a state the real part B state the imaginary or nonreal complex hat is the real part of 2 979 PUT part and 6 identify the num
5 0 Simplify your answer Type your answer in the form a bi
Calculus
Differentiation
5 0 Simplify your answer Type your answer in the form a bi
Simplify the power of i 1 22 C 1 i 22 Simplify your answer Type your answer in the form a
Calculus
Application of derivatives
Simplify the power of i 1 22 C 1 i 22 Simplify your answer Type your answer in the form a
Write the quotient in the form a bi 5 9i 1 i 5 9i 1 i Simplify your answer Type your answer in the form a bi Use integers or the expression
Calculus
Differentiation
Write the quotient in the form a bi 5 9i 1 i 5 9i 1 i Simplify your answer Type your answer in the form a bi Use integers or the expression
Find the complex conjugate of the given complex number 4 2i The complex conjugate is Type an exact answer using radicals and as needed
Calculus
Application of derivatives
Find the complex conjugate of the given complex number 4 2i The complex conjugate is Type an exact answer using radicals and as needed
Find the product and write the result in standard form i 6 4i 6 4i www i 6 4i 6 4i Type an integer or a simplified fraction Type your answer in the form a bi
Calculus
Application of derivatives
Find the product and write the result in standard form i 6 4i 6 4i www i 6 4i 6 4i Type an integer or a simplified fraction Type your answer in the form a bi
Simplify the following expression to i 1 i or 1 35 35
Calculus
Application of derivatives
Simplify the following expression to i 1 i or 1 35 35
5 4i 2 7i 5 4i 2 7i Simplify your answer Type your answer in the form a bi Do not fa
Calculus
Application of derivatives
5 4i 2 7i 5 4i 2 7i Simplify your answer Type your answer in the form a bi Do not fa
2 2 2 2 Simplify your answer Type your answer in the form a bi Type an exact answer using radicals as
Calculus
Application of derivatives
2 2 2 2 Simplify your answer Type your answer in the form a bi Type an exact answer using radicals as
Simplify the following expression to i 1 i or 1 i77 177 0
Calculus
Application of derivatives
Simplify the following expression to i 1 i or 1 i77 177 0
uply 2 6i 2 6i Simplify your answer Type your answer in the form a bi
Calculus
Application of derivatives
uply 2 6i 2 6i Simplify your answer Type your answer in the form a bi
Divide as indicated 21 3 21 3 Simplify your answer Type an exact answer using radicals and i as needed Use integers or frac numbers in the expression
Calculus
Differentiation
Divide as indicated 21 3 21 3 Simplify your answer Type an exact answer using radicals and i as needed Use integers or frac numbers in the expression
Multiply the following as indicated Write the product in standard form 2 i 2 i 2 i 2 i Simplify your answer Type your answer in the form a bi
Calculus
Definite Integrals
Multiply the following as indicated Write the product in standard form 2 i 2 i 2 i 2 i Simplify your answer Type your answer in the form a bi
implify 15 5 3 15 5 3
Calculus
Application of derivatives
implify 15 5 3 15 5 3
the following complex numbers Write the difference in star 5 9i 10i 8 9i 10i 8 Type your answer in the form a bi
Calculus
Application of derivatives
the following complex numbers Write the difference in star 5 9i 10i 8 9i 10i 8 Type your answer in the form a bi
8 5i 5 5i 8 5i 5 5i Simplify your answer Type your answer in the form a bi
Calculus
Application of derivatives
8 5i 5 5i 8 5i 5 5i Simplify your answer Type your answer in the form a bi
14 14 Simplify your answer
Calculus
Application of derivatives
14 14 Simplify your answer
Perform the indicated multiplication 4i 2 8i 4i 2 8i Simplify your answer Type your answer in the form a ba
Calculus
Application of derivatives
Perform the indicated multiplication 4i 2 8i 4i 2 8i Simplify your answer Type your answer in the form a ba
EX 9 9 Simplify your answer Type your answer in the form a b
Calculus
Application of derivatives
EX 9 9 Simplify your answer Type your answer in the form a b
7 lim x 0 Hint Use the identity Vx x x 0
Calculus
Limits & Continuity
7 lim x 0 Hint Use the identity Vx x x 0
2x 2 17 Finding a symmetric interval Let f x and note x 1 that lim f x 4 For each value of e use a graphing utility to find all values of 8 0 such that f x 4 whenever 0 x 1 d a 2 b 8 1 IC c For any 0 make a conjecture about the value of 8 that sat isfies the preceding inequality
Calculus
Limits & Continuity
2x 2 17 Finding a symmetric interval Let f x and note x 1 that lim f x 4 For each value of e use a graphing utility to find all values of 8 0 such that f x 4 whenever 0 x 1 d a 2 b 8 1 IC c For any 0 make a conjecture about the value of 8 that sat isfies the preceding inequality