Chapter 5: The Time Value of Money Flashcards

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1
Q

Explain the mechanics of compounding and bringing the value of money back to the present (1)

A

Compound interest occurs when interest paid on an investment during the first period is added to the principal; then, during the second period, interest is earned on this new sum.

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2
Q

Explain the mechanics of compounding and bringing the value of money back to the present (2)

A

Although there are several ways to move money through time, they all give you the same result. In the business world, the primary method is through the use of a financial spreadsheet, with Excel being the most popular. If you can use a financial calculator, you can easily apply your skills to a spreadsheet.

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3
Q

Explain the mechanics of compounding and bringing the value of money back to the present (3)

A

Actually, we have only one formula with which to calculate both present value and future value - we simply solve for different variables - FV and PV. This single compounding formula is FV=PV(1 + r/m)^(n x m).

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4
Q

Compound Interest

A

The situation in which interest paid on an investment during the first period is added to the principal. During the second period, interest is earned on the original principal plus the interest earned during the first period.

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5
Q

Future Value

A

The amount to which your investment will grow, or a future dollar amount.

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6
Q

Future Value Factor

A

The value of (1 + r/m)^(n x m) used as a multiple to calculate an amount’s future value.

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7
Q

Simple Interest

A

If you only earned interest on your initial investment, it would be referred to as simple interest.

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8
Q

Present Value

A

The value in today’s dollars of a future payment discounted back to present at the required rate of return.

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9
Q

Present Value Factor

A

The value of 1/(1 + r/m)^(n x m) used as a multiplier to calculate an amount’s present value.

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10
Q

Future Value at the End of Year n Equation

A

Present Value x (1 + r/m)^(n x m).

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11
Q

Present Value Equation

A

Future Value at the End of Year n x [1/(1 + r/m)^(n x m).

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12
Q

Understand annuities (1)

A

An annuity is a series of equal payments made for a specified number of years. In effect, it is calculated as the sum of the present or future value of the individual cash flows over the life of the annuity.

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13
Q

Understand annuities (2)

A

If the cash flows from an annuity occur at the end of each period, the annuity is referred to as an ordinary annuity. If the cash flows occur at the beginning of each period, the annuity is referred to as an annuity due. We will assume that cash flows occur at the end of each period unless otherwise stated.

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14
Q

Understand annuities (3)

A

The procedure for solving for PMT, the annuity payment value when i, n, and PV are known, is also used to determine what payments are associated with paying off a loan in equal installments over time. Loans that are paid off this way, in equal periodic payments, are called amortized loans. Although the payments are fixed, different amounts of each payment are applied toward the principal and the interest. With each payment you make, you owe a bit less on the principal. As a result, the amount that goes toward the interest payment declines with each payment made, whereas the portion of each payment that goes toward the principal increases.

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15
Q

Annuity

A

A series of equal dollar payments made for a specified number of years.

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16
Q

Ordinary Annuity

A

An annuity where the cash flows occur at the end of each period.

17
Q

Compound Annuity

A

Depositing an equal sum of money at the end of each year for a certain number of years and allowing it to grow.

18
Q

Annuity Future Value Factor

A

The value of [(1 + r/m)^(n x m) - 1]/(r/m) used as a multiplier to calculate the future value of an annuity.

19
Q

Annuity Present Value Factor

A

The value of [1 - (1 + r/m)^(-n x m)]/(r/m) used as a multiplier to calculate the present value of an annuity.

20
Q

Annuity Due

A

An annuity in which the payments occur at the beginning of each period.

21
Q

Amortized Loan

A

A loan that is paid off in equal periodic payments.

22
Q

Future Value of an Annuity Equation

A

PMT{[(1 + r/m)^(n x m) - 1]/(r/m)}

23
Q

Present Value of an Annuity Equation

A

PMT{[1 - 1/[1 + r/m]^(n x m)}/(r/m)

24
Q

Future Value of an Annuity Due Equation

A

PMT{[(1 + r/m)^(n x m) - 1]/(r/m)} x (1 + r/m)

25
Q

Present Value of an Annuity Due Equation

A

PMT{[1 - 1/[1 + r/m]^(n x m)}/(r/m) x (1 + r/m)

26
Q

Determine the future or present value of a sum when there are nonannual compounding periods.

A

With nonannual compounding, interest is earned on interest more frequently because the length of the compounding period is shorter. As a result, there is an inverse relationship between the length of the compounding period and the effective annual interest rate.

27
Q

Effective Annual Rate (EAR)

A

The annual compound rate that produces the same return as the nominal, or quoted, rate when something is compounded on a nonannual basis. In effect, the EAR provides the true rate of return.

28
Q

Effective Annual Rate (EAR) Equation

A

[1 +(Quoted Rate)/m]^m - 1

29
Q

FV for n years Equation

A

PV{[1 + (r/m)]^(m x n)}

30
Q

Determine the present value of an uneven stream of payments and understand perpetuities (1).

A

Although some projects will involve a single cash flow and some will involve annuities, many projects will involve uneven cash flows over several years. However, finding the present or future value of these flows is not difficult because the present value of any cash flow measured in today’s dollars can be compared, by adding the inflows and subtracting the outflows, to the present value of any other cash flow also measured in today’s dollars.

31
Q

Determine the present value of an uneven stream of payments and understand perpetuities (2).

A

A perpetuity is an annuity that continues forever; that is, every year following its establishment the investment pays the same dollar amount. An example of a perpetuity is preferred stock, which pays a constant dollars dividend infinitely. Determining the present value of a perpetuity is delightfully simple. We merely need to divide the constant flow by the discount rate.

32
Q

Perpetuity

A

An annuity with an infinite life.

33
Q

Present Value of a Perpetuity Equation

A

(Constant Dollar Amount Provided by the Perpetuity)/r