7 - 1 Copyright © 2001 by Harcourt, Inc.All rights reserved. Future value Present value Rates of return Amortization CHAPTER 7 Time Value of Money.

Slides:



Advertisements
Similar presentations
AGVISE Laboratories %Zone or Grid Samples – Northwood laboratory
Advertisements

5.1 Rules for Exponents Review of Bases and Exponents Zero Exponents
Chapter 03: Mortgage Loan Foundations: The Time Value of Money
Worksheets.
2-1 Future value Present value Rates of return Amortization Chapter 2 Time Value of Money.
8 - 1 Copyright © 2002 by Harcourt, Inc.All rights reserved. Future value Present value Rates of return Amortization CHAPTER 8 Time Value of Money.
CALENDAR.
Chapter 4 Time Value of Money.
CHAPTER 6 Time Value of Money
CHAPTER 2 Time Value of Money
Break Time Remaining 10:00.
The basics for simulations
Ch. 2 - Time Value of Money.
Chapter 4: Time Value of Money
6-1 CHAPTER 5 Time Value of Money The most powerful force in the universe is compound interest-Albert Einstein Future value Concept/Math/Using calculator.
The Time Value of Money.
Future value Present value Rates of return Amortization Annuities, AND
1 Chapter 4 Time Value of Money. 2 Time Value Topics Future value Present value Rates of return Amortization.
CHAPTER 5 Time Value of Money
1 Chapter 2 Time Value of Money. 2 Time Value Topics Future value Present value Rates of return Amortization.
1 Chapter 2: Time Value of Money Future value Present value Rates of return Amortization.
© 2014 Cengage Learning. All Rights Reserved. May not be copied, scanned, or duplicated, in whole or in part, except for use as permitted in a license.
Copyright © 2012, Elsevier Inc. All rights Reserved. 1 Chapter 7 Modeling Structure with Blocks.
MaK_Full ahead loaded 1 Alarm Page Directory (F11)
Before Between After.
Chapter 4 Time Value of Money.
Resistência dos Materiais, 5ª ed.
Clock will move after 1 minute
Time Value of Money Chapter 5  Future Value  Present Value  Annuities  Rates of Return  Amortization 5-1.
Principles of Finance Part 3. Requests for permission to make copies of any part of the work should be mailed to: Thomson/South-Western 5191 Natorp Blvd.
Chapter 3 The Time Value of Money © 2005 Thomson/South-Western.
6-1 Copyright (C) 2000 by Harcourt, Inc. All rights reserved. Chapter 6 The Time Value of Money Future Value Present Value Rates of Return Amortization.
9 - 1 Copyright © 1999 by the Foundation of the American College of Healthcare Executives Future and present values Lump sums Annuities Uneven cash flow.
6-1 CHAPTER 5 Time Value of Money  Read Chapter 6 (Ch. 5 in the 4 th edition)  Future value  Present value  Rates of return  Amortization.
2-1 CHAPTER 2 Time Value of Money Future value Present value Annuities Rates of return Amortization.
Chapter 3 The Time Value of Money. 2 Time Value of Money  The most important concept in finance  Used in nearly every financial decision  Business.
2-1 CHAPTER 2 Time Value of Money Future value Present value Annuities Rates of return Amortization.
GBUS502 Vicentiu Covrig 1 Time value of money (chapter 5)
7 - 1 Copyright © 2002 by Harcourt, Inc.All rights reserved. Future value Present value Rates of return Amortization CHAPTER 7 Time Value of Money.
FIN303 Vicentiu Covrig 1 Time value of money (chapter 5)
9 - 1 The financial (monetary) value of any asset (investment) is based on future cash flows. However, the value of a dollar to be received in the future.
2-1 Future value Present value Rates of return Amortization Chapter 2 Time Value of Money.
2-1 CHAPTER 2 Time Value of Money Future value Present value Annuities Rates of return Amortization.
Future value Present value Rates of return Amortization Time Value of Money.
2-1 Future value Present value Rates of return Amortization Chapter 2 Time Value of Money.
Discounted Cash Flow Analysis (Time Value of Money) Future value Present value Rates of return.
Future value Present value Annuities TVM is one of the most important concepts in finance: A dollar today is worth more than a dollar in the future. Why.
CHAPTER 5 Time Value of Money (“TVOM”)
6-1 CHAPTER 5 Time Value of Money. 6-2 Time lines Show the timing of cash flows. Tick marks occur at the end of periods, so Time 0 is today; Time 1 is.
Principles of Finance 5e, 9 The Time Value of Money © 2012 Cengage Learning. All Rights Reserved. May not be scanned, copied or duplicated, or posted to.
Chapter 4 The Time Value of Money. Essentials of Chapter 4 Why is it important to understand and apply time value to money concepts? What is the difference.
2-1 Future value Present value Rates of return Amortization Chapter 2 Time Value of Money.
7 - 1 Copyright © 1999 by The Dryden PressAll rights reserved. Future value Present value Rates of return Amortization CHAPTER 6 Time Value of Money.
2-1 CHAPTER 2 Time Value of Money Future Value Present Value Annuities Rates of Return Amortization.
6-1 Chapter 6 The Time Value of Money Future Value Present Value Rates of Return Amortization.
Discounted Cash Flow Analysis (Time Value of Money) Future value Present value Rates of return.
7 - 1 Copyright © 2002 by Harcourt, Inc.All rights reserved. Future value Present value Rates of return Amortization CHAPTER 7 Time Value of Money.
2.4 Perpetuities and Annuities 2.5 Effective Annual Interest Rate
© 2015 Cengage Learning. All Rights Reserved. May not be scanned, copied, or duplicated, or posted to a publicly accessible website, in whole or in part.
2-1 CHAPTER 2 Time Value of Money Future value Present value Annuities Rates of return Amortization.
6-1 Time Value of Money Future value Present value Annuities Rates of return Amortization.
2 - 1 Future value Present value Rates of return Amortization CHAPTER 2 Time Value of Money.
Time Value of Money Chapter 5  Future Value  Present Value  Annuities  Rates of Return  Amortization.
CHAPTER 6 Time Value of Money
Time Value of Money Future value Present value Rates of return
Chapter 2 Time Value of Money.
Chapter 2 Time Value of Money Future value Present value
CHAPTER 7 Time Value of Money
Presentation transcript:

7 - 1 Copyright © 2001 by Harcourt, Inc.All rights reserved. Future value Present value Rates of return Amortization CHAPTER 7 Time Value of Money

7 - 2 Copyright © 2001 by Harcourt, Inc.All rights reserved. Time lines show timing of cash flows. CF 0 CF 1 CF 3 CF i% Tick marks at ends of periods, so Time 0 is today; Time 1 is the end of Period 1; or the beginning of Period 2.

7 - 3 Copyright © 2001 by Harcourt, Inc.All rights reserved. Time line for a $100 lump sum due at the end of Year Year i%

7 - 4 Copyright © 2001 by Harcourt, Inc.All rights reserved. Time line for an ordinary annuity of $100 for 3 years i%

7 - 5 Copyright © 2001 by Harcourt, Inc.All rights reserved. Time line for uneven CFs -$50 at t = 0 and $100, $75, and $50 at the end of Years 1 through i% -50

7 - 6 Copyright © 2001 by Harcourt, Inc.All rights reserved. Whats the FV of an initial $100 after 3 years if i = 10%? FV = ? % 100 Finding FVs is compounding.

7 - 7 Copyright © 2001 by Harcourt, Inc.All rights reserved. After 1 year: FV 1 = PV + INT 1 = PV + PV(i) = PV(1 + i) = $100(1.10) = $ After 2 years: FV 2 = PV(1 + i) 2 = $100(1.10) 2 = $

7 - 8 Copyright © 2001 by Harcourt, Inc.All rights reserved. After 3 years: FV 3 = PV(1 + i) 3 = 100(1.10) 3 = $ In general, FV n = PV(1 + i) n.

7 - 9 Copyright © 2001 by Harcourt, Inc.All rights reserved. Four Ways to Find FVs Solve the equation with a regular calculator. Use tables. Use a financial calculator. Use a spreadsheet.

Copyright © 2001 by Harcourt, Inc.All rights reserved. Financial calculators solve this equation: FV n = PV(1 + i) n. There are 4 variables. If 3 are known, the calculator will solve for the 4th. Financial Calculator Solution

Copyright © 2001 by Harcourt, Inc.All rights reserved. Heres the setup to find FV: Clearing automatically sets everything to 0, but for safety enter PMT = 0. Set:P/YR = 1, END INPUTS OUTPUT NI/YR PV PMT FV

Copyright © 2001 by Harcourt, Inc.All rights reserved. 10% Whats the PV of $100 due in 3 years if i = 10%? Finding PVs is discounting, and its the reverse of compounding PV = ?

Copyright © 2001 by Harcourt, Inc.All rights reserved. Solve FV n = PV(1 + i ) n for PV: PV= $ = $100PVIF = $ = $ i,n 3.

Copyright © 2001 by Harcourt, Inc.All rights reserved. Financial Calculator Solution N I/YR PV PMTFV Either PV or FV must be negative. Here PV = Put in $75.13 today, take out $100 after 3 years. INPUTS OUTPUT

Copyright © 2001 by Harcourt, Inc.All rights reserved. If sales grow at 20% per year, how long before sales double? Solve for n: FV n = 1(1 + i) n ; 2 = 1(1.20) n Use calculator to solve, see next slide.

Copyright © 2001 by Harcourt, Inc.All rights reserved N I/YR PV PMTFV 3.8 Graphical Illustration: FV 3.8 Year INPUTS OUTPUT

Copyright © 2001 by Harcourt, Inc.All rights reserved. Ordinary Annuity PMT 0123 i% PMT 0123 i% PMT Annuity Due Whats the difference between an ordinary annuity and an annuity due?

Copyright © 2001 by Harcourt, Inc.All rights reserved. Whats the FV of a 3-year ordinary annuity of $100 at 10%? % FV= 331

Copyright © 2001 by Harcourt, Inc.All rights reserved Financial Calculator Solution Have payments but no lump sum PV, so enter 0 for present value. INPUTS OUTPUT I/YRNPMTFVPV

Copyright © 2001 by Harcourt, Inc.All rights reserved. Whats the PV of this ordinary annuity? % = PV

Copyright © 2001 by Harcourt, Inc.All rights reserved. Have payments but no lump sum FV, so enter 0 for future value INPUTS OUTPUT NI/YRPVPMTFV

Copyright © 2001 by Harcourt, Inc.All rights reserved. Find the FV and PV if the annuity were an annuity due % 100

Copyright © 2001 by Harcourt, Inc.All rights reserved Switch from End to Begin. Then enter variables to find PVA 3 = $ Then enter PV = 0 and press FV to find FV = $ INPUTS OUTPUT NI/YRPVPMTFV

Copyright © 2001 by Harcourt, Inc.All rights reserved. What is the PV of this uneven cash flow stream? % = PV

Copyright © 2001 by Harcourt, Inc.All rights reserved. Input in CFLO register: CF 0 = 0 CF 1 = 100 CF 2 = 300 CF 3 = 300 CF 4 = -50 Enter I = 10, then press NPV button to get NPV = (Here NPV = PV.)

Copyright © 2001 by Harcourt, Inc.All rights reserved. What interest rate would cause $100 to grow to $ in 3 years? % $100 (1 + i ) 3 = $ INPUTS OUTPUT NI/YRPVPMTFV

Copyright © 2001 by Harcourt, Inc.All rights reserved. Will the FV of a lump sum be larger or smaller if we compound more often, holding the stated I% constant? Why? LARGER! If compounding is more frequent than once a year--for example, semiannually, quarterly, or daily--interest is earned on interest more often.

Copyright © 2001 by Harcourt, Inc.All rights reserved % % Annually: FV 3 = 100(1.10) 3 = Semiannually: FV 6 = 100(1.05) 6 =

Copyright © 2001 by Harcourt, Inc.All rights reserved. We will deal with 3 different rates: i Nom = nominal, or stated, or quoted, rate per year. i Per = periodic rate. EAR= EFF% =. effective annual rate

Copyright © 2001 by Harcourt, Inc.All rights reserved. i Nom is stated in contracts. Periods per year (m) must also be given. Examples: l 8%; Quarterly l 8%, Daily interest (365 days)

Copyright © 2001 by Harcourt, Inc.All rights reserved. Periodic rate = i Per = i Nom /m, where m is number of compounding periods per year. m = 4 for quarterly, 12 for monthly, and 360 or 365 for daily compounding. Examples: 8% quarterly: i Per = 8%/4 = 2%. 8% daily (365): i Per = 8%/365 = %.

Copyright © 2001 by Harcourt, Inc.All rights reserved. Effective Annual Rate (EAR = EFF%): The annual rate that causes PV to grow to the same FV as under multi-period compounding. Example: EFF% for 10%, semiannual: FV = (1 + i Nom /m) m = (1.05) 2 = EFF% = 10.25% because (1.1025) 1 = Any PV would grow to same FV at 10.25% annually or 10% semiannually.

Copyright © 2001 by Harcourt, Inc.All rights reserved. An investment with monthly payments is different from one with quarterly payments. Must put on EFF% basis to compare rates of return. Use EFF% only for comparisons. Banks say interest paid daily. Same as compounded daily.

Copyright © 2001 by Harcourt, Inc.All rights reserved. How do we find EFF% for a nominal rate of 10%, compounded semiannually? Or use a financial calculator.

Copyright © 2001 by Harcourt, Inc.All rights reserved. EAR = EFF% of 10% EAR Annual = 10%. EAR Q =( /4) 4 – 1= 10.38%. EAR M =( /12) 12 – 1= 10.47%. EAR D(360) =( /360) 360 – 1= 10.52%.

Copyright © 2001 by Harcourt, Inc.All rights reserved. Can the effective rate ever be equal to the nominal rate? Yes, but only if annual compounding is used, i.e., if m = 1. If m > 1, EFF% will always be greater than the nominal rate.

Copyright © 2001 by Harcourt, Inc.All rights reserved. When is each rate used? i Nom :Written into contracts, quoted by banks and brokers. Not used in calculations or shown on time lines.

Copyright © 2001 by Harcourt, Inc.All rights reserved. i Per :Used in calculations, shown on time lines. If i Nom has annual compounding, then i Per = i Nom /1 = i Nom.

Copyright © 2001 by Harcourt, Inc.All rights reserved. (Used for calculations if and only if dealing with annuities where payments dont match interest compounding periods.) EAR = EFF%: Used to compare returns on investments with different payments per year.

Copyright © 2001 by Harcourt, Inc.All rights reserved. FV of $100 after 3 years under 10% semiannual compounding? Quarterly? = $100(1.05) 6 = $ FV 3Q = $100(1.025) 12 = $ FV = PV1.+ i m n Nom mn FV = $ S 2x3

Copyright © 2001 by Harcourt, Inc.All rights reserved. Whats the value at the end of Year 3 of the following CF stream if the quoted interest rate is 10%, compounded semiannually? % mos. periods 100

Copyright © 2001 by Harcourt, Inc.All rights reserved. Payments occur annually, but compounding occurs each 6 months. So we cant use normal annuity valuation techniques.

Copyright © 2001 by Harcourt, Inc.All rights reserved. 1st Method: Compound Each CF % FVA 3 = 100(1.05) (1.05) =

Copyright © 2001 by Harcourt, Inc.All rights reserved. Could you find FV with a financial calculator? Yes, by following these steps: a. Find the EAR for the quoted rate: 2nd Method: Treat as an Annuity EAR = ( 1 + ) – 1 = 10.25%

Copyright © 2001 by Harcourt, Inc.All rights reserved. Or, to find EAR with a calculator: NOM% = 10. P/YR = 2. EFF% =

Copyright © 2001 by Harcourt, Inc.All rights reserved. EFF% = P/YR = 1 NOM% = INPUTS OUTPUT NI/YRPVFVPMT b. The cash flow stream is an annual annuity. Find k Nom (annual) whose EFF% = 10.25%. In calculator, c.

Copyright © 2001 by Harcourt, Inc.All rights reserved. Whats the PV of this stream? %

Copyright © 2001 by Harcourt, Inc.All rights reserved. Amortization Construct an amortization schedule for a $1,000, 10% annual rate loan with 3 equal payments.

Copyright © 2001 by Harcourt, Inc.All rights reserved. Step 1: Find the required payments. PMT % -1, INPUTS OUTPUT NI/YRPVFVPMT

Copyright © 2001 by Harcourt, Inc.All rights reserved. Step 2: Find interest charge for Year 1. INT t = Beg bal t (i) INT 1 = $1,000(0.10) = $100. Step 3: Find repayment of principal in Year 1. Repmt = PMT – INT = $ – $100 = $

Copyright © 2001 by Harcourt, Inc.All rights reserved. Step 4: Find ending balance after Year 1. End bal = Beg bal – Repmt = $1,000 – $ = $ Repeat these steps for Years 2 and 3 to complete the amortization table.

Copyright © 2001 by Harcourt, Inc.All rights reserved. Interest declines. Tax implications. BEGPRINEND YRBALPMTINTPMTBAL 1$1,000$402$100$302$ TOT1, ,000

Copyright © 2001 by Harcourt, Inc.All rights reserved. $ Interest Level payments. Interest declines because outstanding balance declines. Lender earns 10% on loan outstanding, which is falling. Principal Payments

Copyright © 2001 by Harcourt, Inc.All rights reserved. Amortization tables are widely used--for home mortgages, auto loans, business loans, retirement plans, etc. They are very important! Financial calculators (and spreadsheets) are great for setting up amortization tables.

Copyright © 2001 by Harcourt, Inc.All rights reserved. On January 1 you deposit $100 in an account that pays a nominal interest rate of 10%, with daily compounding (365 days). How much will you have on October 1, or after 9 months (273 days)? (Days given.)

Copyright © 2001 by Harcourt, Inc.All rights reserved. i Per = 10.0% / 365 = % per day. FV = ? % -100 Note: % in calculator, decimal in equation. FV = $ = $ = $

Copyright © 2001 by Harcourt, Inc.All rights reserved INPUTS OUTPUT NI/YRPVFVPMT i Per =i Nom /m =10.0/365 = % per day. Enter i in one step. Leave data in calculator.

Copyright © 2001 by Harcourt, Inc.All rights reserved. Now suppose you leave your money in the bank for 21 months, which is 1.75 years or = 638 days. How much will be in your account at maturity? Answer:Override N = 273 with N = 638. FV = $

Copyright © 2001 by Harcourt, Inc.All rights reserved. i Per = % per day. FV = days -100 FV=$100(1 +.10/365) 638 =$100( ) 638 =$100(1.1910) =$

Copyright © 2001 by Harcourt, Inc.All rights reserved. You are offered a note that pays $1,000 in 15 months (or 456 days) for $850. You have $850 in a bank that pays a 7.0% nominal rate, with 365 daily compounding, which is a daily rate of % and an EAR of 7.25%. You plan to leave the money in the bank if you dont buy the note. The note is riskless. Should you buy it?

Copyright © 2001 by Harcourt, Inc.All rights reserved. 3 Ways to Solve: 1. Greatest future wealth: FV 2. Greatest wealth today: PV 3. Highest rate of return: Highest EFF% i Per = % per day. 1, days

Copyright © 2001 by Harcourt, Inc.All rights reserved. 1. Greatest Future Wealth Find FV of $850 left in bank for 15 months and compare with notes FV = $1,000. FV Bank = $850( ) 456 = $ in bank. Buy the note: $1,000 > $

Copyright © 2001 by Harcourt, Inc.All rights reserved INPUTS OUTPUT NI/YRPVFVPMT Calculator Solution to FV: i Per =i Nom /m =7.0/365 = % per day. Enter i Per in one step.

Copyright © 2001 by Harcourt, Inc.All rights reserved. 2. Greatest Present Wealth Find PV of note, and compare with its $850 cost: PV=$1,000/( ) 456 =$

Copyright © 2001 by Harcourt, Inc.All rights reserved INPUTS OUTPUT NI/YRPVFV 7/365 = PV of note is greater than its $850 cost, so buy the note. Raises your wealth. PMT

Copyright © 2001 by Harcourt, Inc.All rights reserved. Find the EFF% on note and compare with 7.25% bank pays, which is your opportunity cost of capital: FV n = PV(1 + i) n $1,000 = $850(1 + i) 456 Now we must solve for i. 3. Rate of Return

Copyright © 2001 by Harcourt, Inc.All rights reserved % per day INPUTS OUTPUT NI/YRPVFVPMT Convert % to decimal: Decimal = /100 = EAR = EFF%= ( ) 365 – 1 = 13.89%.

Copyright © 2001 by Harcourt, Inc.All rights reserved. Using interest conversion: P/YR = 365. NOM% = (365) = EFF% = Since 13.89% > 7.25% opportunity cost, buy the note.