Write out Theorem 1 specifically for the cases n=1 and n=2
The original Theorem 1 states that If Po, P1,...,Pn-1, q are continuous on (a,b) and Xo is any number in the interval (a,b) and yo,y'o,...,y^(n-1)o are any numbers then there is a unique function y which is a solution of Y^(n)+Pn-1(x)y^(n-1)+...+p1(x)y'+po(x)y=q(x) such that y(Xo)=Yo, y'(Xo)=y'o,...,y^(n-1)(Xo)=y^(n-1)o
hmm how am I supposed to write the same theorem from n=1 and n =2, plug n in? x.x
anyway redrawn version... The original theorem 1 states that if |dw:1381571895877:dw| are continuous on (a,b) and |dw:1381571923442:dw| is a number in the interval (a,b) and |dw:1381571943076:dw|are any numbers then there is a unique function y which is a solution of |dw:1381571980174:dw| such that |dw:1381572036702:dw|
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