about 5600 bucks, and it would be great to add to it.
2006-10-24 15:36:55
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answer #1
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answered by Anonymous
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Use the formula
A = P(1+r/n)^(nt)
where P is the initial amount, A is the final amount, r is the interest rate, t is time in years, and n is the number of times per year interest is compounded. We have A = 100,000, r = 0.96, t = 30, and n = 365.
You then have 100000 = P(1+0.096/365)^(10950).
Take the natural log of both sides, using 100000 = 10^5, gives you
5 ln 10 = 10950 ln (1+0.096/365) + ln P.
Solving for ln P gives you ln P = 7.9135, so P = $5615.60.
2006-10-23 01:27:58
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answer #2
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answered by James L 5
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daily rate 9.6%/365 = 2.63013698*10-2%
p = 2.63*10^-4, x be the inital amount
x * (1.000263013698)^(365*30) = 100,000 ,
x = 5615.6
2006-10-23 01:34:49
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answer #3
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answered by shamu 2
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Just use compound interest formula
A = P(1 + r%)^t
where $A = amount at maturity = $100,000
$P = amount invested
r in interest paid in each term = 9.6%/365.25 per day
t = number of terms= 30*365.25days
So 100000 = P(1 + 0.096/365.25)^(30*365.25)
So P = 100000(1 + 0.096/365.25)^(-30*365.25)
= $5615.60 to nearest cent
2006-10-23 01:30:53
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answer #4
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answered by Wal C 6
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9.6% compounded daily = 0.096/365.25 = 0.00026283/day
(365.25 is used to account for leap years)
[30*365.25] = 10957 days
A = P(1+i)^n
P = A/(1+i)^n
P = $100,000/(1.0006283)^10957
P = $5,616.34
There are many assumptions that will result in slightly different answers, e.g. 30 years could be 10,958 days
2006-10-23 01:35:47
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answer #5
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answered by Helmut 7
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100,000 = Ao (1 + .096 / 365) ^ (30*365)
Solve for Ao
Ao = 100,000 / 17.81 = 5615 dollars
2006-10-23 01:31:58
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answer #6
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answered by z_o_r_r_o 6
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1.00 daily
2006-10-23 01:23:59
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answer #7
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answered by gussie r 3
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