Loans Refinance Loans Home Equity Refinance Loans Home Equity Trade

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med = market value) Long-term debt Short-term debt and current portion of long-term debt Total debt Less cash and cash equivalents Less investment securities Net debt, $billion Enterprise value = equity + debt, $billion COST OF CAPITAL CALCULATIONS Using Gordon model % of equity % of debt Cost of equity Cost of debt 1998 interest expense WACC Using the CAPM 1997 fig¡­¡­¡­¡­
searchhsearchpesearch Turbo xm Nama l Refinance s Arti Psearchgsearch 3search5 Equity csearchatsearchDsearchtsearch Turbo osearch Szh ae3search9searchPa Tag esearch3 Szh 4search hsearchrt Www D Nama t o Arti ae3 Turbo 4 Refinance Equity a Refinanceloanshomeequity esearch3 Arti 4 searchhsearchr at Nama or Arti pa Refinance e Equity 34 Loans P Refinanceloanshomeequity gsearch 3 Refinanceloanshomeequity 3c Arti a Refinance t searcha Equity a Refinance frpsearchg Refinance 2search Pg Tag 32 Tag Home ÖÐÄ Refinanceloanshomeequity a Www e323 Refinance csearch c Arti search_c c c Equity Home _searchMM Tag MsearchMsearchMM Loans M search_r Refinance r Arti Equity _ Refinance r Www Refinance _ Turbo r Equity T_ T_ Tag _ Loans T_ Tsearch Equity _searchTsearch ttsearchtt tt tt tttTc M r Arti Pamsearchns p Nama r y Tag asearch g <-- =(c_/r_*(1-EXP(-r_*(M-T_)))+EXP(-r_*(M-T_)))/(c_/0.08*(1-EXP(-0.08*(M-T_)))+EXP(-0.08*(M-T_))) Duration--continuous time <-- =(EXP(r_)*(-c_+c_*EXP(M*r_)-c_*M*r_+M*r_^2))/(r_*(-c_+c_*EXP(M*r_)+r_)) Using Excel to automatically adjust the graph titles Case <-- =IF(AND(r_<8%,c_r_),2,IF(AND(r_>8%,c_>8%),3,4))) Graph title ="Case "&B13&": "&" r = "&B5&", "&IF(B5<8%," max "," min ")&"c = "&B3 =B7, but hidden Data Table Duration =B9, but hidden Step =C22+$B$22 ÇéÐÎ ÇéÐÎ ÓÃEXCEL×Ô¶¯µ÷ÕûͼÐÎÃû³Æ ÿÄêÖ§¸¶ ¾ÃÆÚ-³ÖÐøÊ±¼ä ͼÐÎÃû³Æ Ä£ÄâÔËËã±í UN-17B 2.00 .02 25.00 .18 4.00¡­¡­¡­¡­
Data for page 99 Page 99 Page 98 (ÖÐÎÄ) Page 98 Page 97 (ÖÐÎÄ) Page 97 Page 96 (ÖÐÎÄ) Page 96 Page 94,, (ÖÐÎÄ) Page 94,, Page 94, Page 93, bottom Page 93 Page 92£¨ÖÐÎÄ£© Page 92 solver_adj solver_adj solver_adj solver_adj solver_cvg 1.00E-04 solver_cvg 1.00E-04 solver_cvg 1.00E-04 solver_cvg 1.00E-04 solver_drv 1.00 solver_drv 1.00 solver_drv 1.00 solver_drv 1.00 solver_est 1.00 solver_est 1.00 solver_est 1.00 solver_est 1.00 solver_itr 100.00 solver_itr 100.00 solver_itr 100.00 solver_itr 100.00 solver_lin 2.00 solver_lin 2.00 solver_lin 2.00 solver_lin 2.00 solver_neg 2.00 solver_neg 2.00 solver_neg 2.00 solver_neg 2.00 solver_num .00 solver_num .00 solver_num .00 solver_num .00 solver_nwt 1.00 solver_nwt 1.00 solver_nwt 1.00 solver_nwt 1.00 solver_opt solver_opt solver_opt solver_opt solver_pre 1.00E-06 solver_pre 1.00E-06 solver_pre 1.00E-06 solver_pre 1.00E-06 solver_scl 2.00 solver_scl 2.00 solver_scl 2.00 solver_scl 2.00 solver_sho 2.00 solver_sho 2.00 solver_sho 2.00 solver_sho 2.00 solver_tim 100.00 solver_tim 100.00 solver_tim 100.00 solver_tim 100.00 solver_tol .05 solver_tol .05 solver_tol .05 solver_tol .05 solver_typ 3.00 solver_typ 3.00 solver_typ 3.00 solver_typ 3.00 solver_val¡­¡­¡­¡­
Page376-377 (ÖÐÎÄ) Page376-377 Page 375-376 (ÖÐÎÄ) Page 375-376 Page 374 (ÖÐÎÄ) Page 374 Page 373 Section 371 (ÖÐÎÄ) Section 371 Page 370 bottom (ÖÐÎÄ) Page 370 bottom Page 70 top (ÖÐÎÄ) Page 370 top Page 369, (ÖÐÎÄ) Page 369, tax ˰ Double-clicking on the "fill handle" of a cell will fill in the rest of the column provided there¡®s a filled cell next to it. Growth Year Cash flow <-- B6*(1+$B$3) Hint: To put in a new line, use [Alt]+[Enter] (this creates the little box you see in cell D21) <-- B3+3 PUTTING LINE BREAKS IN CELLS NAMED CELLS Income Tax rate Tax paid Sales Margin Profit <-- =Sales*Margin <-- =B4*B3 <-- =tax*B3 Taxes owed Tax rate as text <-- =TEXT(B4,"0.00%") <-- =TEXT(B4,"0.0") Income as date <-- =TEXT(B3,"mmm. dd, yyyy") x2 x2i Cannot put superscript and subscript in same column. SUPERSCRIPTS/SUBSCRIPTS IN CELLS HIDING CELLS Payment Number of payments Discount rate Present value <-- =PV(B5,B4,-B3) Data table <-- Data table header, =B6 PV of payments This is a multi-line cell. The break was entered by inserting [Alt]+[Enter] at the desired break points. GRAPH TITLES THAT UPDATE AUTOMATICALLY AUTO FILL/COPY ×Ô¶¯Ìî³ä/¸´ÖÆ Èç¹û´æÔÚÒ»¸öÌî³äµ¥Ôª¸ñ¡£ Ë«»÷µ¥Ôª¸ñµÄ¡°Ìî³ä´¦Àí¡±½«»áÌî³äµ½¸ÃÁÐµÄÆäÓ൥Ԫ¸ñÖÐ ½«Ò»ÐжϿª·Åµ½µ¥Ôª¸ñÖÐ ÕâÊÇÒ»¸ö¶àÐе¥Ôª¸ñ¡£ ÔÚÒ»ÐÐÄãÏëÔÚ¶Ï¡­¡­¡­¡­
Page 367 (ÖÐÎÄ) Page 367 Page 366b (ÖÐÎÄ) Page 366b Page 366 (ÖÐÎÄ) Page 366 Page 363-364 (ÖÐÎÄ) Page 363-364 Page 363 chart Page 362-365 (ÖÐÎÄ) Page 362-365 Page 361 (ÖÐÎÄ) Page 361 Page 360, bottom (ÖÐÎÄ) Page 360, bottom Page 360, top (ÖÐÎÄ) Page 360, top Page 359, (ÖÐÎÄ) Page 359, Page 357b(ÖÐÎÄ) Page 357b Page 357(ÖÐÎÄ) Page 357 Page 356(ÖÐÎÄ) Page 356 Page 355-356 (ÖÐÎÄ) Page 355-356 Page 355, (ÖÐÎÄ) Page 355, Page 354 (ÖÐÎÄ) Page 354 Year Cash flow Discount rate NPV IRR <-- =IRR(B13:G13,0) step Payments made at the end of the period Rate Number of periods Payment Present value Payments made at the beginning of the period Principal Loan Table Interest Principal at Split of payment between beginning Repayment of year of principal Original matrix Transposed matrix =TRANSPOSE(B4:C7) Return Minimum Bins Frequency start Maximum a b Simon Howie q Jack Observation X Y Average Sample variance Population variance Sample standard deviation Population standard deviation Correlation Covariance Regression intercept Regression slope Regression r-squared USING =LINEST( ) slope intercept Slope (also =slope(D4:D13,C4:C13) )--> <-- Intercept Standard error of slope --> <-- Standard error of intercept R2 (also =Rsq(D4:D13,C¡­¡­¡­¡­
Page 298 chart Page 297 (ÖÐÎÄ) Page 297 Page 295 chart Page 290 (ÖÐÎÄ) Page 290 VBA dduration function Page 290 chart Page 294-295(ÖÐÎÄ) Page 294-295 Illustration, page 293 (ÖÐÎÄ) Illustration, page 293 bondprice dduration secondDur BASIC IMMUNIZATION EXAMPLE WITH 3 BONDS Yield to maturity Bond 1 Bond 2 Bond 3 Coupon rate Maturity Face value Bond price Face value equal to $1,000 of market value Duration New yield to maturity Reinvested coupons Total Multiply by percent of face value bought Product data table bond 1 bond 2 bond 3 bond 1 & 3 portfolio multiply by percent of face value bought Bond portfolio Bond 4 When the interest rate increases: When the interest rate decreases: THE IMMUNIZATION PROBLEM EXPERIMENTING WITH BOND PORTFOLIOS AND CONVEXITY Yield to maturity (YTM) New YTM Portfolio of bonds 1 and 3 BOND CONVEXITY Second derivative of duration Calculating the bond portfolio: Matrix of coefficients Vector of constants Solution Illustrated for the 30-year bond. Proportion of bond 1 Proportion of bond 3 Data table Explanation of the above: We want to invest proportions x1, x3, and x4 in bonds 1, 3 and 4 respectively, in order that: a) The total investment is $1000; this means x1+x2+x¡­¡­¡­¡­
Data for CML chart, p. 137 Page 137 (ÖÐÎÄ) Page 137 Page 137 chart (ÖÐÎÄ) Page 137 chart Page 135-136 (ÖÐÎÄ) Page 135-136 Page 134 chart Page 131-134 (ÖÐÎÄ) Page 126-129 Chart data127-130 Page 130 chart (ÖÐÎÄ) Page 130 chart Page 128 chart (ÖÐÎÄ) Page 128 chart Page 127 chart (ÖÐÎÄ) Page 127 chart solver_adj solver_adj solver_cvg 1.00E-04 solver_cvg 1.00E-04 solver_drv 1.00 solver_drv 1.00 solver_est 1.00 solver_est 1.00 solver_itr 100.00 solver_itr 100.00 solver_lin 2.00 solver_lin 2.00 solver_neg 2.00 solver_neg 2.00 solver_num .00 solver_num .00 solver_nwt 1.00 solver_nwt 1.00 solver_opt solver_opt solver_pre 1.00E-06 solver_pre 1.00E-06 solver_scl 2.00 solver_scl 2.00 solver_sho 2.00 solver_sho 2.00 solver_tim 100.00 solver_tim 100.00 solver_tol .05 solver_tol .05 solver_typ 2.00 solver_typ 3.00 solver_val .00 solver_val .07 Mean minus Variance-covariance matrix returns constant Constant z x y Transpose x Transpose y Mean(x) Mean(y) Var(x) Var(y) Sigma(x) Sigma(y) Cov(x,y) Corr(x,y) DATA TABLE A single portfolio calculation FOR EFFICIENT FRONTIER Proportion of x GRAPH p¡®s mean return Sigma Return p¡®s sigma <--data table header "jumps" in table <-- {} <-- {}¡­¡­¡­¡­
Page 341 (ÖÐÎÄ) Page 341 Page 340b Page 340 (ÖÐÎÄ) Page 340 Page 338-341 (ÖÐÎÄ) Page 338-341 discount discount discount discount discount discount discount discount growth growth growth growth growth growth growth growth CF1 Growth rate Discount rate Year Cash flow NPV <-- =+B6+NPV(B3,C6:I6) =B8 =B9 IRR <-- =IRR(B6:I6,0) Growth rate for Section 19.6 art: Ôö³¤ÂÊ ÕÛÏÖÂÊ Äê ÏÖ½ðÁ÷Á¿ CF1 UN-19J 234.00 .10 .15 .00 1.00 2.00 3.00 4.00 5.00 6.00 7.00 -1150.00 234.00 257.40 283.14 311.45 342.60 376.86 414.55 101.46 .18 .00 101.46 .18 .00 -176.46 .10 .05 -47.82 .14 .10 101.46 .18 .15 274.35 .22 101.46 .07 .10 .12 .00 .05 .10 .15 101.46 .18 .00 -176.46 .10 .05 -47.82 .14 .10 101.46 .18 .15 274.35 .22 UN-19J 234.00 .10 .15 .00 1.00 2.00 3.00 4.00 5.00 6.00 7.00 -1150.00 234.00 257.40 283.14 311.45 342.60 376.86 414.55 101.46 .18 .00 101.46 .18 .00 -176.46 .10 .05 -47.82 .14 .10 101.46 .18 .15 274.35 .22 101.46 .07 .10 .12 .00 .05 .10 .15 101.46 .18 .00 -176.46 .10 .05 -47.82 .14 .10 101.46 .18 .15 274.35 .22 UN-19J 234.00 .10 .15 .00 1.00 2.00 3.00 4.00 5.00 6.00 7.00 -1150.00 234.00 257.40 283.14 311.45 342.60 376.86 414.55 101.46 .18 .00 101.46 .18 .00 -176.46 .10 .05 -47.82 .14 .10 101.46 .18 .15 274.35 .2¡­¡­¡­¡­
Page 234 chart £¨ÖÐÎÄ£© Page 234 chart Page 233-234 (ÖÐÎÄ) Page 233-234 Page 233 (ÖÐÎÄ) Page 233 Page 231b (ÖÐÎÄ) Page 231b Page 231(ÖÐÎÄ) Page 230 (ÖÐÎÄ) Page 230 Page 228-229 (ÖÐÎÄ) VBA functions, pp. 199-200, 203 Page 228-229 Call Call CallOption CallVolatility implied_call_volatility implied_call_volatility interest interest PutOption r_ r_ S S sigma sigma solver_adj solver_adj solver_adj solver_cvg 1.00E-04 solver_cvg 1.00E-04 solver_cvg 1.00E-04 solver_drv 1.00 solver_drv 1.00 solver_drv 1.00 solver_est 1.00 solver_est 1.00 solver_est 1.00 solver_itr 100.00 solver_itr 100.00 solver_itr 100.00 solver_lin 2.00 solver_lin 2.00 solver_lin 2.00 solver_neg 2.00 solver_neg 2.00 solver_neg 2.00 solver_num .00 solver_num .00 solver_num .00 solver_nwt 1.00 solver_nwt 1.00 solver_nwt 1.00 solver_opt solver_opt solver_opt solver_pre 1.00E-06 solver_pre 1.00E-06 solver_pre 1.00E-06 solver_scl 2.00 solver_scl 2.00 solver_scl 2.00 solver_sho 2.00 solver_sho 2.00 solver_sho 2.00 solver_tim 100.00 solver_tim 100.00 solver_tim 100.00 solver_tol .05 solver_tol .05 solver_tol .05 solver_typ 3.00 solver_typ 3.00 solver_typ 3.00 solver_val 4.00 solver_val 4.00 solver_val 4.00 T T target_call_price target_call_pri¡­¡­¡­¡­
Page 15-16 (ÖÐÎÄ) Page 15-16 Page 12-14 (ÖÐÎÄ) Page 12-14 Page 10b (ÖÐÎÄ) Page 10b Page 10 (ÖÐÎÄ) Page 10 Page 9£¨ÖÐÎÄ£© Page 9 Page 8£¨ÖÐÎÄ£© Page 8 Page 7 (ÖÐÎÄ) Page 7 Page 5-6 (ÖÐÎÄ) Page 5-6 Page 4 (ÖÐÎÄ) Page 4 solver_adj solver_adj solver_cvg 1.00E-03 solver_cvg 1.00E-03 solver_drv 1.00 solver_drv 1.00 solver_est 1.00 solver_est 1.00 solver_itr 100.00 solver_itr 100.00 solver_lin 2.00 solver_lin 2.00 solver_neg 2.00 solver_neg 2.00 solver_num .00 solver_num .00 solver_nwt 1.00 solver_nwt 1.00 solver_opt solver_opt solver_pre 1.00E-06 solver_pre 1.00E-06 solver_scl 2.00 solver_scl 2.00 solver_sho 2.00 solver_sho 2.00 solver_tim 100.00 solver_tim 100.00 solver_tol .05 solver_tol .05 solver_typ 3.00 solver_typ 3.00 solver_val .00 solver_val .00 Discount rate Present value Cash Year flow IRR LOAN TABLE NPV Division of payment Principal Payment between interest at beginning at end and return of principal year of year Interest DATA TABLE Discount rate Identifying the two IRRs First IRR Second IRR Cost Deposit at beginning Total in account end of year Account balance beg. year earned during year <-- =D8+C8+B8 A simpler way Future value A RETIREMENT PROBLEM Annual deposit <-- =E10+D10+C10 Numerator Denom¡­¡­¡­¡­
Page 209-210 (ÖÐÎÄ) Page208 chart Page 208 (ÖÐÎÄ) Page 208 Page 207 (ÖÐÎÄ) Page 207 VBA option functions Page 201-202 Page 199-200 (ÖÐÎÄ) Page 199-200 Page 199 Page 198 (ÖÐÎÄ) Page 198 Page 196(ÖÐÎÄ) Page 195-196 (ÖÐÎÄ) Page 195-196, AmericanCall AmericanPut BSCall BSPut EurCall EurPut getformula TWO-DATE BINOMIAL OPTION PRICING Up Down Initial stock price Interest rate Exercise price Stock price Bond price Call option A B Call price State prices qu qd Solving for the portfolio parameters: A is the number of shares and B is the number of bonds. 55*A + 108*B = 5 48.5*A + 108*B = 0 or: A*stock*(1+up)+B*(1+interest)=max(stock*(1+up)-X,0) A*stock*(1+down)+B*(1+interest)=max(stock*(1+down)-X,0) The solution is: check on state prices call price state prices Call option price FIVE DATE EUROPEAN BINOMIAL OPTION PRICING up down initial stock price interest rate exercise price stock price bond price Terminal payoff * payoff of "up" of "down" price * steps of paths # paths Option value THREE DATE BINOMIAL OPTION PRICING FOR AMERICAN CALL/PUT American put option =MAX(MAX(X-S*(1+u),0),qu*put_payoffuu+qd*put_payoffud) =MAX(MAX(X-S*(1+d),0),qu*put_payoffud+qd*put_payoffdd) =MAX(MAX(X-S,0),qu*put_valueu+qd*¡­¡­¡­¡­
Page 347 (ÖÐÎÄ) Page 347 Page 346 (ÖÐÎÄ) Page 346 Page 343-345 (ÖÐÎÄ) Page 343-345 Page 342, (ÖÐÎÄ) Page 342, david david jack jack simon simon terry terry x x xx xx Matrix A Matrix B Product AB Solution Matrix A of coefficients vector Y MATRICES IN EXCEL Matrix A (a row vector) Matrix D (a 4 x 3 matrix) Matrix C vector) (a column Matrix B (a square 3 x 3 matrix) MATRIX OPERATIONS Multiplication by a scalar Scalar Scalar * Matrix B <-- =D7*$B$5 Addition of matrices Sum of A + B <-- =B20+E20 Transposition of matrix Matrix E Transpose of E = ET The framed area contains To use this function: Mark off the whole area; put in the formula, then finish by pressing [Ctrl]+[Shift]+[Enter]. the array function =Transpose(A30:D32) . Multiplication of matrices <--Array contains formula =MMULT(A42:B43,D42:F43) Product BA -- this won¡®t work <-- =MMULT(D42:F43,A42:B43) MATRIX INVERSE Inverse of A: Array function Minverse(A4:D7) Verifying the inverse We multiply A*Inverse A: cells contain array function MMULT(A4:D7,F4:I7) SOLVING SIMULTANEOUS EQUATIONS Column A-1 Y Checking that the solution works Contains the array function =MMULT(A5:C7,G5:G7) EXCELÖеľØÕó ¾ØÕóA (Ò»¸öÐÐÏòÁ¿) ¾ØÕóC (Ò»¸öÁÐ ÏòÁ¿) ¾ØÕóB (Ò»¸ö3 x 3µÄ·½Õó) ¾ØÕóD (Ò»¸ö4 x¡­¡­¡­¡­
Page 150 (ÖÐÎÄ) Page 150 Page 149 (ÖÐÎÄ) Page 149 Page 148 Page 147(ÖÐÎÄ) Page 146-147 (ÖÐÎÄ) Page 146-147 Page 144,(ÖÐÎÄ) Page 144, Page 143, (ÖÐÎÄ) Page 143, AMR BS GE HR MO UK SP500 Mean Beta Intercept Slope R-squared SUMMARY OUTPUT Multiple R R Square Adjusted R Square df SS MS Coefficients t Stat X Variable 1 Regressing the means on the betas: F Significance F P-value Lower 95% Upper 95% =COVAR(B4:B13,$H$4:$H$13)/VARP($H$4:$H$13) =SLOPE(B4:B13,$H$4:$H$13) <-- =INTERCEPT(B15:G15,B16:G16) <-- =SLOPE(B15:G15,B16:G16) <-- =RSQ(B15:G15,B16:G16) THE SECURITY MARKET LINE--A SIMPLE EXAMPLE Variance-covariance matrix Means Minus Constant Calculating two efficient portfolios z x y Variance Covariance <-- =MMULT(TRANSPOSE(E17:E22),J6:J11) <-- =MMULT(MMULT(TRANSPOSE(E17:E22),C6:H11),E17:E22) <-- =SQRT(E25) <-- =MMULT(MMULT(TRANSPOSE(E17:E22),C6:H11),K17:K22) <-- =C19/SUM($C$17:$C$22) Sigma Data for SP500 returns <-- =AVERAGE(P4:P13) <-- =STDEVP(P4:P13) Calculation for a single portfolio Proportion x Proportion y <-- =D30*D24+D31*K24 <-- =D30^2*D25+D31^2*K25+2*D30*D31*D27 <-- =SQRT(D34) Portfolio proportion mean Step Cell D39 is the change in the portfolio proportion in the data table to the right. <-¡­¡­¡­¡­
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