Question
The value of 'c' in Lagrange's mean value theorem for
in [0, 1] is
- 1/3
- 1/2
- 2/3
- 0
Hint:
By Lagrange's Mean Value Theorem
Lagrange mean value theorem states that for any two points on the curve there exists a point on the curve such that the tangent drawn at this point is parallel to the secant through the two points on the curve.
![f apostrophe left parenthesis c right parenthesis space equals space fraction numerator f left parenthesis b right parenthesis space minus space f left parenthesis a right parenthesis over denominator b space minus space a end fraction](data:image/png;base64,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)
The correct answer is: 1/3
Given :
is a polynomial in the range [0, 1]
We know that a polynomial in the range is continuous and differentiable
![rightwards double arrow space f space left parenthesis x right parenthesis equals x cubed minus 2 x squared minus x plus 4 space space i s space c o n t i n u o u s space a n d space d i f f e r e n t i a b l e space](data:image/png;base64,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)
By Lagrange's Mean Value Theorem
Lagrange mean value theorem states that for any two points on the curve there exists a point on the curve such that the tangent drawn at this point is parallel to the secant through the two points on the curve.
![f apostrophe left parenthesis c right parenthesis space equals space fraction numerator f left parenthesis b right parenthesis space minus space f left parenthesis a right parenthesis over denominator b space minus space a end fraction](data:image/png;base64,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)
![rightwards double arrow space f space left parenthesis 0 right parenthesis equals 4 space space space a n d space f left parenthesis 1 right parenthesis space equals space 2
f apostrophe left parenthesis c right parenthesis space equals space fraction numerator f left parenthesis b right parenthesis space minus space f left parenthesis a right parenthesis over denominator b space minus space a end fraction space equals space fraction numerator f left parenthesis 1 right parenthesis space minus space f left parenthesis 0 right parenthesis over denominator 1 space minus space 0 end fraction space equals space fraction numerator 2 minus 4 over denominator 1 end fraction space equals space minus 2 space...... space left parenthesis 1 right parenthesis
N o w space d i f f e r e n t i a t i n g space t h e space e q u a t i o n
rightwards double arrow space f apostrophe space left parenthesis x right parenthesis equals 3 x squared minus 4 x minus space 1
rightwards double arrow space f apostrophe space left parenthesis c right parenthesis equals 3 c squared minus 4 c minus space 1
F r o m space left parenthesis 1 right parenthesis
rightwards double arrow 3 c squared minus 4 c minus space 1 space equals space minus 2
rightwards double arrow 3 c squared minus 4 c space plus space 1 space equals space 0
U sin g space Q u a d r a t i c space F o r m u l a space t o space f i n d space v a l u e space o f space c
c space equals space fraction numerator negative left parenthesis negative 4 right parenthesis space plus-or-minus square root of left parenthesis negative 4 right parenthesis squared space minus space 4 space cross times 3 space cross times 1 end root over denominator 2 cross times 3 end fraction space equals space fraction numerator 4 space plus-or-minus space 2 over denominator 6 end fraction space equals space 1 space o r space 1 third
T h u s space c space equals space 1 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Related Questions to study
The value of 'c' in Lagrange's mean value theorem for
in [0, 2] is
The value of 'c' in Lagrange's mean value theorem for
in [0, 2] is
The equation
represents
The equation
represents
The polar equation of the circle whose end points of the diameter are
and
is
The polar equation of the circle whose end points of the diameter are
and
is
The radius of the circle
is
The radius of the circle
is
The adjoining figure shows the graph of
Then –
![](data:image/png;base64,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)
Here we can see that the graph was given to us and us to take out the conclusion from that since we have the options available so I would suggest you to always start to check from the options because by the use of options we can see how easily we concluded this question.
The adjoining figure shows the graph of
Then –
![](data:image/png;base64,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)
Here we can see that the graph was given to us and us to take out the conclusion from that since we have the options available so I would suggest you to always start to check from the options because by the use of options we can see how easily we concluded this question.
Graph of y = ax2 + bx + c = 0 is given adjacently. What conclusions can be drawn from this graph –
![](data:image/png;base64,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)
Here we can see that the graph was given to us and us to take out the conclusion from that since we have the options available so I would suggest you to always start to check from the options because by the use of options we can see how easily we concluded this question.
Graph of y = ax2 + bx + c = 0 is given adjacently. What conclusions can be drawn from this graph –
![](data:image/png;base64,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)
Here we can see that the graph was given to us and us to take out the conclusion from that since we have the options available so I would suggest you to always start to check from the options because by the use of options we can see how easily we concluded this question.
For the quadratic polynomial f (x) = 4x2 – 8kx + k, the statements which hold good are
For the quadratic polynomial f (x) = 4x2 – 8kx + k, the statements which hold good are
The graph of the quadratic polynomial y = ax2 + bx + c is as shown in the figure. Then :
![](data:image/png;base64,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)
The graph of the quadratic polynomial y = ax2 + bx + c is as shown in the figure. Then :
![](data:image/png;base64,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)
The greatest possible number of points of intersections of 8 straight line and 4 circles is :
The students can make an error if they don’t know about the formula for calculating the number of points as mentioned in the hint which is as follows
The number point of intersection between two lines can be counted by finding the number of ways in which two lines can be selected out of the lot as two lines can intersect at most one point.
The number point of intersection between two circles can be counted by finding the number of ways in which two circles can be selected out of the lot multiplied by 2 as two circles can intersect at most two points.
The number point of intersection between two circles can be counted by finding the number of ways in which one circle and one line can be selected out of the lot multiplied by 2 as one circle and one line can intersect at most two points.
The greatest possible number of points of intersections of 8 straight line and 4 circles is :
The students can make an error if they don’t know about the formula for calculating the number of points as mentioned in the hint which is as follows
The number point of intersection between two lines can be counted by finding the number of ways in which two lines can be selected out of the lot as two lines can intersect at most one point.
The number point of intersection between two circles can be counted by finding the number of ways in which two circles can be selected out of the lot multiplied by 2 as two circles can intersect at most two points.
The number point of intersection between two circles can be counted by finding the number of ways in which one circle and one line can be selected out of the lot multiplied by 2 as one circle and one line can intersect at most two points.
How many different nine digit numbers can be formed from the number 223355888 by rearranging its digits so that the odd digits occupy even position ?
Here we have obtained the total number of 9 digit numbers using the given digits. While finding the number of ways to arrange the odd digits in 5 even places, we have divided the 4! by 2! because the digit 3 were occurring two times and the digit 5 were occurring 2 times. Here we can make a mistake by conserving the number of even digits 4 and the number of odd digits 5, which will result in the wrong answer.
How many different nine digit numbers can be formed from the number 223355888 by rearranging its digits so that the odd digits occupy even position ?
Here we have obtained the total number of 9 digit numbers using the given digits. While finding the number of ways to arrange the odd digits in 5 even places, we have divided the 4! by 2! because the digit 3 were occurring two times and the digit 5 were occurring 2 times. Here we can make a mistake by conserving the number of even digits 4 and the number of odd digits 5, which will result in the wrong answer.