FIRST-ORDER DIFFERENCE EQUATIONS 49 2.2.5 Example E The equation (k + 1)yk+1 – kyk = 0 (2.29) can be put in simpler form by the transformation Zk = kyk, (2.30) which gives Zk+1 - Zk = 0. (2.31) The...

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FIRST-ORDER DIFFERENCE EQUATIONS<br>49<br>2.2.5 Example E<br>The equation<br>(k + 1)yk+1 – kyk = 0<br>(2.29)<br>can be put in simpler form by the transformation<br>Zk = kyk,<br>(2.30)<br>which gives<br>Zk+1<br>- Zk = 0.<br>(2.31)<br>The solution to this latter equation is<br>Zk = A = arbitrary constant.<br>(2.32)<br>Therefore,<br>Yk =<br>= A/k.<br>(2.33)<br>Note that equation (2.29) corresponds to having pk = k/(k+1). Therefore,<br>k-1<br>k-<br>(k – 1)!<br>1<br>Il Pi<br>(2.34)<br>+1<br>k!<br>k<br>i=1<br>i=1<br>Putting this result into equation (2.4) again gives the solution of equation<br>(2.33).<br>

Extracted text: FIRST-ORDER DIFFERENCE EQUATIONS 49 2.2.5 Example E The equation (k + 1)yk+1 – kyk = 0 (2.29) can be put in simpler form by the transformation Zk = kyk, (2.30) which gives Zk+1 - Zk = 0. (2.31) The solution to this latter equation is Zk = A = arbitrary constant. (2.32) Therefore, Yk = = A/k. (2.33) Note that equation (2.29) corresponds to having pk = k/(k+1). Therefore, k-1 k- (k – 1)! 1 Il Pi (2.34) +1 k! k i=1 i=1 Putting this result into equation (2.4) again gives the solution of equation (2.33).

Jun 04, 2022
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