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John is 30 years old. He comes up with a plan to save for his retirement at 65 years. Currently, he has saved $20,000 in a balanced superannuation account earning 5.1% p.a. compounded annually. He has set himself a retirement target of $2,000,000. How much must be deposited every year into John's superannuation account, starting next year, to reach his target? (Round your answer in dollars to 2 decimal places, e.g. put 1204.42 if your answer is 1204.4243.)

Question

John is 30 years old. He comes up with a plan to save for his retirement at 65 years. Currently, he has saved 20,000inabalancedsuperannuationaccountearning5.120,000 in a balanced superannuation account earning 5.1% p.a. compounded annually. He has set himself a retirement target of 2,000,000. How much must be deposited every year into John's superannuation account, starting next year, to reach his target? (Round your answer in dollars to 2 decimal places, e.g. put 1204.42 if your answer is 1204.4243.)

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Solution

To solve this problem, we need to use the formula for the future value of a series of payments or annuities compounded annually, which is:

FV = P * [(1 + r)^n - 1] / r

where: FV is the future value of the series of payments (the retirement target), P is the amount of each payment (the amount John needs to deposit each year), r is the interest rate per period (annual interest rate), n is the number of periods (number of years until retirement).

We know that FV = 2,000,000,r=5.12,000,000, r = 5.1% = 0.051, and n = 65 - 30 = 35 years. We also know that John already has 20,000 in his account. The future value of this amount in 35 years is:

FV_existing = PV * (1 + r)^n = 20,000(1+0.051)3520,000 * (1 + 0.051)^35 ≈ 150,813.26

So, the future value of the series of payments must be 2,000,0002,000,000 - 150,813.26 = $1,849,186.74.

Substituting FV, r, and n into the formula, we get:

$1,849,186.74 = P * [(1 + 0.051)^35 - 1] / 0.051

Solving for P gives:

P = 1,849,186.740.051/[(1+0.051)351]1,849,186.74 * 0.051 / [(1 + 0.051)^35 - 1] ≈ 11,286.57

So, John must deposit approximately $11,286.57 into his superannuation account each year to reach his retirement target.

This problem has been solved

Similar Questions

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