101 |
A point P is given on the circumference of a circle of radius r. Chord QR is parallel to the tangent at P. Determine the maximum possible area of ΔPQR.
A point P is given on the circumference of a circle of radius r. Chord QR is parallel to the tangent at P. Determine the maximum possible area of ΔPQR.
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IIT 1990 |
08:40 min
|
102 |
Let P(asecθ, btanθ) and Q(asecɸ, btanɸ) where θ + ɸ = be two points on the hyperbola . If (h, k) be the point of intersection of the normals at P and Q then k is equal to a) b) c) d)
Let P(asecθ, btanθ) and Q(asecɸ, btanɸ) where θ + ɸ = be two points on the hyperbola . If (h, k) be the point of intersection of the normals at P and Q then k is equal to a) b) c) d)
|
IIT 1999 |
07:25 min
|
103 |
Let Then at x = 0, f has a) A local maximum b) No local maximum c) A local minimum d) No extremum
Let Then at x = 0, f has a) A local maximum b) No local maximum c) A local minimum d) No extremum
|
IIT 2000 |
01:52 min
|
104 |
Let C be any circle with centre (0, . Prove that at the most two rational points can be there on C (A rational point is a point both of whose coordinates are rational numbers).
Let C be any circle with centre (0, . Prove that at the most two rational points can be there on C (A rational point is a point both of whose coordinates are rational numbers).
|
IIT 1997 |
01:58 min
|
105 |
Let then the real roots of the equation are a) ± 1 b) c) d) 0 and 1
Let then the real roots of the equation are a) ± 1 b) c) d) 0 and 1
|
IIT 2002 |
01:42 min
|
106 |
Consider a family of circles . If in the first quadrant, the common tangent to a circle of the family and the ellipse meet the coordinate axes at A and B, then find the locus of the mid-point of AB.
Consider a family of circles . If in the first quadrant, the common tangent to a circle of the family and the ellipse meet the coordinate axes at A and B, then find the locus of the mid-point of AB.
|
IIT 1999 |
07:41 min
|
107 |
The area bounded by the curves and the X–axis in the first quadrant is a) 9 b) c) 36 d) 18
The area bounded by the curves and the X–axis in the first quadrant is a) 9 b) c) 36 d) 18
|
IIT 2003 |
04:28 min
|
108 |
Find the point on which is nearest to the line
Find the point on which is nearest to the line
|
IIT 2003 |
04:09 min
|
109 |
If f(x) = xa lnx and f(0) = 0 then the value of a for which Rolle’s theorem can be applied in [0, 1] is a) – 2 b) – 1 c) 0 d)
If f(x) = xa lnx and f(0) = 0 then the value of a for which Rolle’s theorem can be applied in [0, 1] is a) – 2 b) – 1 c) 0 d)
|
IIT 2004 |
02:30 min
|
110 |
The points of intersection of the line and the circle is . . . . .
The points of intersection of the line and the circle is . . . . .
|
IIT 1983 |
03:18 min
|
111 |
Multiple choice For which value of m, is the area of the region bounded by the curve y = x –x2 and the line y = mx equal to a) – 4 b) – 2 c) 2 d) 4
Multiple choice For which value of m, is the area of the region bounded by the curve y = x –x2 and the line y = mx equal to a) – 4 b) – 2 c) 2 d) 4
|
IIT 1999 |
04:39 min
|
112 |
The equation of the line passing through the points of intersection of the circles and is . . . . .
The equation of the line passing through the points of intersection of the circles and is . . . . .
|
IIT 1986 |
02:45 min
|
113 |
If the triangle another circle C2 of radius 5 in such a manner that the common chord is of maximum length and a slope equal to , then the coordinates of the centre of C2 are . . . . .
If the triangle another circle C2 of radius 5 in such a manner that the common chord is of maximum length and a slope equal to , then the coordinates of the centre of C2 are . . . . .
|
IIT 1988 |
06:55 min
|
114 |
The equation of the locus of the midpoints of the chord of the circle that subtends an angle of at the centre is . . . . .
The equation of the locus of the midpoints of the chord of the circle that subtends an angle of at the centre is . . . . .
|
IIT 1993 |
05:29 min
|
115 |
Find the area bounded by the X–axis, part of the curve and the ordinates at x = 2 and x = 4. If the ordinate x = a divides the area in two equal parts, find a. a) b) c) d)
Find the area bounded by the X–axis, part of the curve and the ordinates at x = 2 and x = 4. If the ordinate x = a divides the area in two equal parts, find a. a) b) c) d)
|
IIT 1983 |
04:06 min
|
116 |
The chord of contact of the pair of tangents drawn from each point on the line to the circle passes through the point . . . . .
The chord of contact of the pair of tangents drawn from each point on the line to the circle passes through the point . . . . .
|
IIT 1997 |
02:57 min
|
117 |
Find the tangents to the curve y = cos(x + y), − 2π ≤ x ≤ 2π that are parallel to the line x + 2y = 0
Find the tangents to the curve y = cos(x + y), − 2π ≤ x ≤ 2π that are parallel to the line x + 2y = 0
|
IIT 1985 |
07:32 min
|
118 |
Evaluate where n is a positive integer and t is a parameter independent of x. a) b) c) d)
Evaluate where n is a positive integer and t is a parameter independent of x. a) b) c) d)
|
IIT 1981 |
05:47 min
|
119 |
is equal to a) 0 b) c) d) None of these
is equal to a) 0 b) c) d) None of these
|
IIT 1984 |
01:15 min
|
120 |
Find the area bounded by the X - axis, part of the curve and the ordinate at x = 2 and x = 4. If the ordinate at x = a divide the area into two equal parts, find a, a) b) c) d)
Find the area bounded by the X - axis, part of the curve and the ordinate at x = 2 and x = 4. If the ordinate at x = a divide the area into two equal parts, find a, a) b) c) d)
|
IIT 1983 |
06:17 min
|
121 |
The value of is a) 1 b) – 1 c) 0 d) None of these
The value of is a) 1 b) – 1 c) 0 d) None of these
|
IIT 1991 |
02:34 min
|
122 |
Evaluate a) b) c) d)
|
IIT 1986 |
05:55 min
|
123 |
a) exists and equals b) exists and equals c) does not exist because x – 1 → 0 d) does not exist because the left hand limit is not equal to the right hand limit.
a) exists and equals b) exists and equals c) does not exist because x – 1 → 0 d) does not exist because the left hand limit is not equal to the right hand limit.
|
IIT 1998 |
03:32 min
|
124 |
Evaluate a) πln2 b) c) d)
Evaluate a) πln2 b) c) d)
|
IIT 1997 |
02:50 min
|
125 |
If where n is a non–zero real number, then a is equal to a) 0 b) c) n d)
If where n is a non–zero real number, then a is equal to a) 0 b) c) n d)
|
IIT 2003 |
02:22 min
|