Math, asked by juhaina1938, 7 months ago

The complete integral of partial differential equations√p+√q=1 is

Answers

Answered by knjroopa
8

Step-by-step explanation:

Given The complete integral of partial differential equations√p+√q=1 is

  • Let f(p.q) = √p + √q – 1 = 0 ------------------1
  • Now let the complete integral of equation 1 be  
  •       So p = ax + by + c ------------------2
  • Now f (a,b) = √a + √b – 1 = 0
  •       So √b = 1 - √a
  •       Or b = (1 - √a)^2
  • So the required complete integral is given by
  •         So p = ax + (1 - √a)^2y + c

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Answered by pulakmath007
18

SOLUTION

TO DETERMINE

The complete integral of

 \sf{  \sqrt{p} +  \sqrt{q}  = 1 \: }

EVALUATION

Here the given equation is

 \sf{  \sqrt{p} +  \sqrt{q}   = 1\: } \:  \: .....(1)

This equation is of the form f(p, q) = 0

So the solution is given by

 \sf{z = ax + by + c} \: \: \: ......(2)

Where a, b, c are constants

Now in order to get the complete integral we have to eliminate any one of the arbitrary constants.

Differentiating partially both sides of equation (2) with respect to x we get

 \displaystyle \sf{ \frac{ \partial z}{ \partial x} = p = a \: }

Again Differentiating partially both sides of Equation (2) with respect to y we get

 \displaystyle \sf{ \frac{ \partial z}{ \partial y} = q = b \: }

Putting these values in Equation (1) we get

 \sf{  \sqrt{a} +  \sqrt{b}   = 1\: } \:  \:

 \implies \sf{b =  {(1 -  \sqrt{a} )}^{2}  \: }

Hence the required complete integral is

 \sf{z = ax + {(1 -  \sqrt{a})}^{2}y + c  }

Where a and c are arbitrary constants

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