Use first 4 terms of the series to approximate












0












$begingroup$


I need to use the first 4 non zero terms binomial Taylor series:



$(1+x)^r = sum^{infty}_{n=0} {(r n)x^n}$
centered at $0$



I need to use this series to approximate $(1.2)^{1/4}$.



What exactly is the question asking me to do? This topic is new to me so I am not sure how to start this problem.










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$endgroup$












  • $begingroup$
    $x=0.2,r=0.25$. Need I say more?
    $endgroup$
    – Don Thousand
    Dec 18 '18 at 19:33










  • $begingroup$
    I can see how you got there, but how does that relate to the terms of the series?
    $endgroup$
    – Elijah
    Dec 18 '18 at 19:36










  • $begingroup$
    Notice that your summation uses $r,x$ as variables. I gave you their values...
    $endgroup$
    – Don Thousand
    Dec 18 '18 at 19:38
















0












$begingroup$


I need to use the first 4 non zero terms binomial Taylor series:



$(1+x)^r = sum^{infty}_{n=0} {(r n)x^n}$
centered at $0$



I need to use this series to approximate $(1.2)^{1/4}$.



What exactly is the question asking me to do? This topic is new to me so I am not sure how to start this problem.










share|cite|improve this question









$endgroup$












  • $begingroup$
    $x=0.2,r=0.25$. Need I say more?
    $endgroup$
    – Don Thousand
    Dec 18 '18 at 19:33










  • $begingroup$
    I can see how you got there, but how does that relate to the terms of the series?
    $endgroup$
    – Elijah
    Dec 18 '18 at 19:36










  • $begingroup$
    Notice that your summation uses $r,x$ as variables. I gave you their values...
    $endgroup$
    – Don Thousand
    Dec 18 '18 at 19:38














0












0








0





$begingroup$


I need to use the first 4 non zero terms binomial Taylor series:



$(1+x)^r = sum^{infty}_{n=0} {(r n)x^n}$
centered at $0$



I need to use this series to approximate $(1.2)^{1/4}$.



What exactly is the question asking me to do? This topic is new to me so I am not sure how to start this problem.










share|cite|improve this question









$endgroup$




I need to use the first 4 non zero terms binomial Taylor series:



$(1+x)^r = sum^{infty}_{n=0} {(r n)x^n}$
centered at $0$



I need to use this series to approximate $(1.2)^{1/4}$.



What exactly is the question asking me to do? This topic is new to me so I am not sure how to start this problem.







taylor-expansion






share|cite|improve this question













share|cite|improve this question











share|cite|improve this question




share|cite|improve this question










asked Dec 18 '18 at 19:31









ElijahElijah

626




626












  • $begingroup$
    $x=0.2,r=0.25$. Need I say more?
    $endgroup$
    – Don Thousand
    Dec 18 '18 at 19:33










  • $begingroup$
    I can see how you got there, but how does that relate to the terms of the series?
    $endgroup$
    – Elijah
    Dec 18 '18 at 19:36










  • $begingroup$
    Notice that your summation uses $r,x$ as variables. I gave you their values...
    $endgroup$
    – Don Thousand
    Dec 18 '18 at 19:38


















  • $begingroup$
    $x=0.2,r=0.25$. Need I say more?
    $endgroup$
    – Don Thousand
    Dec 18 '18 at 19:33










  • $begingroup$
    I can see how you got there, but how does that relate to the terms of the series?
    $endgroup$
    – Elijah
    Dec 18 '18 at 19:36










  • $begingroup$
    Notice that your summation uses $r,x$ as variables. I gave you their values...
    $endgroup$
    – Don Thousand
    Dec 18 '18 at 19:38
















$begingroup$
$x=0.2,r=0.25$. Need I say more?
$endgroup$
– Don Thousand
Dec 18 '18 at 19:33




$begingroup$
$x=0.2,r=0.25$. Need I say more?
$endgroup$
– Don Thousand
Dec 18 '18 at 19:33












$begingroup$
I can see how you got there, but how does that relate to the terms of the series?
$endgroup$
– Elijah
Dec 18 '18 at 19:36




$begingroup$
I can see how you got there, but how does that relate to the terms of the series?
$endgroup$
– Elijah
Dec 18 '18 at 19:36












$begingroup$
Notice that your summation uses $r,x$ as variables. I gave you their values...
$endgroup$
– Don Thousand
Dec 18 '18 at 19:38




$begingroup$
Notice that your summation uses $r,x$ as variables. I gave you their values...
$endgroup$
– Don Thousand
Dec 18 '18 at 19:38










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