Let a solution y = y(x) of the differential equation
STATEMENT-1 :
STATEMENT-2 :
The order and degree of the differential equation
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The solution of the equation
The degree and order of the differential equation of the family of all parabolas whose axis is x - axis, are respectively.
The solution of the differential equation
The differential equation for the family of circle x2 + y2 - 2ay = 0, where a is anarbitrary constant is
Solution of the differential equation ydx + (x + x2 y)dy = 0 is
The differential equation representing the family of curves is a parameter, is of order and degree as follows :
then the solution of theequation is
The differential equation whose solution is Ax2 + By2 = 1 where A and B are arbitrary constants is of
The differential equation of all circles passing through the origin and having their centres on the x-axis is
The soluton of the differential equation satisfying the condition y(1) =1 is
The differential equation which represents the family of curves are arbitrary constants, is
Solution of the differential equation
then y (ln 2) is equal to :
Let I be the purchase value of an equipment and V (t) be the value after it has been used for t years. The value V(t) depreciates at a rate given by differential equation where k > 0 is a constant and T is thetotal life in years of the equipment. Then the scrap value V(T) of the equipment is
The population p (t) at time t of a certain mouse species satisfies the differential equation If p (0) = 850, then the time at which the population becomes zero is :
At present, a firm is manufacturing 2000 items. It is estimated that the rate of change of production P w.r.t. additional number of workers x is given by If thefirm employs 25 more workers, then the new level of production of items is
Let the population of rabbits surviving at time t be governed by the differential equation If p(0) = 100, then p(t) equals:
Let y(x) be the solution of the differential equation Then y (e) is equal to:
If a curve y = f(x) passes through the point (1, –1) and satisfies the differential equation, y(1 + xy) dx = x dy, then