Theory of Equations46 questions5 PYQ
Theory of Equations — JEE Maths Practice Questions & Solutions
46 questions on Theory of Equations with full step-by-step solutions, including past-year (PYQ) problems. Free to practice.
Let be the roots of the equation , and be the roots of the equation . If the roots of the equation are and , then is equal to
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If the quadratic equation , , has two positive roots, then the number of possible integral values of is
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Let , where , be the roots of . Then is equal to
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Let , be the roots of the quadratic equation for some . Then is equal to
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Let one root of the quadratic equation be twice the other. Then the length of the latus rectum of the parabola is equal to
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If roots of the equation are , then roots of the equation are
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Consider with . If it has two distinct real roots in , then
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If is such that the roots of the equation
lie between the roots of the equation
then the number of integral values of is
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If and are real roots of
then the minimum integral value of is
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If and the equation (where denotes GIF) has no integral solution and has exactly one solution in , then lies in the interval
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Let be a root of and be a root of , where are real and . Then the equation has a root such that
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If the equations
have exactly one root in common , then which of the following can be correct?
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Let , where is a parameter.
If both roots of belong to , then the greatest integral value of
is
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Let be the roots of and be the roots of
. If
then find the value of .
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If the roots of the quadratic equation
are and respectively, then the roots of the equation
will be
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Let be the roots of . Also consider
Then the value of cannot be
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If and are the roots of the equation , then the equation whose roots are and is
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Find the only integer which does not lie in the range of the function
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Let be a sequence such that and
If , then is equal to
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If one of the roots of is less than and the other is greater than , then the complete set of values of is
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If are non-zero real numbers such that and are the roots of and and are the roots of , then the absolute value of is
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If be the roots of the equation (where , ) satisfying , then is
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If and are the zeroes of where , then the set of values of is
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If and are the roots of the equation , then the value of is
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If the quadratic equations and have a common root, then the value of is, where
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If , , are respectively the roots of ; ; where are all positive, then the value of is
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A value of for which the equations and have one root in common is
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Let be the roots of the equation , . Then the roots of the equation are
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The set of values of for which holds true for all is
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If are distinct positive real numbers such that and are the roots of and and are the roots of , then the value of is
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The number of integral values of so that the graph of is always above the -axis is
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If and are the roots of the equation , then is equal to
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Let be the roots (real or non-real) of . The value of is equal to
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If is a root of the equation , where , then the value of can be equal to
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Let . If assumes both positive and negative values , then the range of is
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If are roots of the equation , then equals
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If the equation has roots , then the value of is equal to
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If and the two equations and have one common root, then the value of is equal to
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The number of real solutions of the equation
is
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If are the integral roots of the quadratic equation
then the number of possible different quadratic equation(s) is
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The values of and for which the quadratic equation has a real solution is
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If the vertex of the quadratic expression is , then the quadratic equation whose vertex is is
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If are the roots of , , then the value of is equal to
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Let and be the roots of the equation , . If is least, then equals
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If are roots of the equation and , then the value of is equal to
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If the quadratic polynomial , , is positive for every real , then the greatest absolute value of is
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