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1201 |
Let ABCD be a quadrilateral with area 18 with side AB parallel to CD and AB = 2CD. Let AD be perpendicular to AB and CD. A circle is drawn inside the quadrilateral ABCD touching all the sides, then its radius is a) 3 b) 2 c)  d) 1
Let ABCD be a quadrilateral with area 18 with side AB parallel to CD and AB = 2CD. Let AD be perpendicular to AB and CD. A circle is drawn inside the quadrilateral ABCD touching all the sides, then its radius is a) 3 b) 2 c)  d) 1
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IIT 2007 |
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1202 |
Multiple choices The function f (x) = max is a) continuous at all points b) differentiable at all points c) differentiable at all points except x = 1 and x =  d) continuous at all points except at x=1 and x=-1 where it is discontinuous
Multiple choices The function f (x) = max is a) continuous at all points b) differentiable at all points c) differentiable at all points except x = 1 and x =  d) continuous at all points except at x=1 and x=-1 where it is discontinuous
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IIT 1995 |
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1203 |
Find the equation of the circle passing through ( 4, 3) and touching the lines x + y = 4 and .
Find the equation of the circle passing through ( 4, 3) and touching the lines x + y = 4 and .
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IIT 1982 |
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1204 |
A circle touches the line y = x at a point P such that , where O is the origin. The circle contains the point in its interior and the length of its chord on the line is . Determine its equation.
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IIT 1990 |
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1205 |
a)  b)  c)  d) 
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IIT 2005 |
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1206 |
equals a)  b)  c)  d) 
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IIT 1997 |
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1207 |
Let g (x) be a polynomial of degree one and f (x) be defined by  Find the continuous function f (x) satisfying  a)  b) c)  d) None of the above
Let g (x) be a polynomial of degree one and f (x) be defined by  Find the continuous function f (x) satisfying  a)  b) c)  d) None of the above
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IIT 1987 |
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1208 |
In how many ways can a pack of 52 cards be divided equally amongst 4 players in order?
In how many ways can a pack of 52 cards be divided equally amongst 4 players in order?
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IIT 1979 |
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1209 |
Find the interval in which ‘a’ lies for which the line y + x = 0 bisects the chord drawn from the point to the circle 
Find the interval in which ‘a’ lies for which the line y + x = 0 bisects the chord drawn from the point to the circle 
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IIT 1996 |
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1210 |
The points on the curve where the tangent is vertical, is (are) a)  b)  c)  d) 
The points on the curve where the tangent is vertical, is (are) a)  b)  c)  d) 
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IIT 2002 |
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1211 |
Let T1, T2 be two tangents drawn from (−2, 0) onto the circle C: x2 + y2 = 1. Determine the circle touching C and having T1, T2 as their pair of tangents. Further find the equation of all possible common tangents to the circles, when taken two at a time.
Let T1, T2 be two tangents drawn from (−2, 0) onto the circle C: x2 + y2 = 1. Determine the circle touching C and having T1, T2 as their pair of tangents. Further find the equation of all possible common tangents to the circles, when taken two at a time.
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IIT 1999 |
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1212 |
Let for all real x and y. If exists and then find f(2) a) – 1 b) 0 c) 1 d) 2
Let for all real x and y. If exists and then find f(2) a) – 1 b) 0 c) 1 d) 2
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IIT 1995 |
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1213 |
Let and where are continuous functions. If A(t) and B(t) are non-zero vectors for all t and A(0) =  then A(t) and b(t) are parallel for some t. a) True b) False
Let and where are continuous functions. If A(t) and B(t) are non-zero vectors for all t and A(0) =  then A(t) and b(t) are parallel for some t. a) True b) False
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IIT 2001 |
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1214 |
Let n be any positive integer. Prove that  For each non negative integer m ≤ n
Let n be any positive integer. Prove that  For each non negative integer m ≤ n
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IIT 1999 |
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1215 |
Find the centre and radius of the circle formed by all the points represented by satisfying the relation where α and β are complex numbers given by 
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IIT 2004 |
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1216 |
Using permutation or otherwise prove that is an integer, where n is a positive integer.
Using permutation or otherwise prove that is an integer, where n is a positive integer.
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IIT 2004 |
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1217 |
Three circles of radii 3, 4 and 5 units touch each other externally and tangents drawn at the points of contact intersect at P. Find the distance between P and the point of contact.
Three circles of radii 3, 4 and 5 units touch each other externally and tangents drawn at the points of contact intersect at P. Find the distance between P and the point of contact.
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IIT 2005 |
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1218 |
In ΔABC, D is the midpoint of BC. If AD is perpendicular to AC then . a) True b) False
In ΔABC, D is the midpoint of BC. If AD is perpendicular to AC then . a) True b) False
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IIT 1980 |
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1219 |
A function f : R R where R is the set of real numbers is defined by f (x) = . Find the interval of values of α for which f is onto. Is the function one to one for α = 3? Justify your answer. a) 2 ≤ α ≤ 14 b) α ≥ 2 c) α ≤ 14 d) none of the above
A function f : R R where R is the set of real numbers is defined by f (x) = . Find the interval of values of α for which f is onto. Is the function one to one for α = 3? Justify your answer. a) 2 ≤ α ≤ 14 b) α ≥ 2 c) α ≤ 14 d) none of the above
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IIT 1996 |
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1220 |
The sum where equals a) i b) i – 1 c) – i d) 0
The sum where equals a) i b) i – 1 c) – i d) 0
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IIT 1998 |
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1221 |
Fill in the blank The value of f (x) = lies in the interval ……………. a)  b)  c)  d) 
Fill in the blank The value of f (x) = lies in the interval ……………. a)  b)  c)  d) 
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IIT 1983 |
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1222 |
Find the area bounded by the curve x2 = 4y and the straight line x = 4y – 2. a) 3/2 b) 3/4 c) 9/4 d) 9/8
Find the area bounded by the curve x2 = 4y and the straight line x = 4y – 2. a) 3/2 b) 3/4 c) 9/4 d) 9/8
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IIT 1981 |
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1223 |
If f(x) and g(x) are differentiable functions for 0 ≤ x ≤ 1 such that f(0) = 2, g(0) = 0, f(1) = 6, g(1) = 2 then show that there exists c satisfying 0 < c < 1 and . a) 0 < c < 1 and  b) 0 < c < 1 and  c) 0 < c < 1 and  d) 0 < c < 1 and 
If f(x) and g(x) are differentiable functions for 0 ≤ x ≤ 1 such that f(0) = 2, g(0) = 0, f(1) = 6, g(1) = 2 then show that there exists c satisfying 0 < c < 1 and . a) 0 < c < 1 and  b) 0 < c < 1 and  c) 0 < c < 1 and  d) 0 < c < 1 and 
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IIT 1982 |
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1224 |
Let a > 0, b > 0, c > 0 then both the roots of the equation a) are real and positive b) have negative real parts c) have positive real parts d) none of these
Let a > 0, b > 0, c > 0 then both the roots of the equation a) are real and positive b) have negative real parts c) have positive real parts d) none of these
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IIT 1979 |
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1225 |
If f(x) is a continuous function defined for 1 ≤ x ≤ 3. If f(x) takes rational values for all x and f(2) = 10 then f(1.5) = . . . . a) 2 b) 5 c) 10 d) 20
If f(x) is a continuous function defined for 1 ≤ x ≤ 3. If f(x) takes rational values for all x and f(2) = 10 then f(1.5) = . . . . a) 2 b) 5 c) 10 d) 20
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IIT 1997 |
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