Ari Tagor Sihombing (Hal 650-672)

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    TABLE C-17 Discrete Compounding; i= 20%

    Single Payment Uniform Series Uniform Gradient

    Compound Present Compound Present Sinking capital Gradient Gradient

    Amount Worth Amount Worth Fund recovery Present Worth Uniform Series

    Factor Factor Factor Factor Factor Factor Factor Factor

    To Find F To Find P To Find F To Find P To Find A To Find A To Find P To Find A

    Given P Given F Given A Given A Given F Given P Given G Given G

    N F/P P/F F/A P/A A/F A/P P/G A/G N

    1 1.2000 0.8333 1.0000 0.8333 1.0000 1.2000 0.000 0.0000 1

    2 1.4400 0.6944 2.2000 1.5278 0.4545 0.6545 0.694 0.4545 2

    3 1.7280 0.5787 3.6400 2.1065 0.2747 0.4747 1.852 0.8791 34 2.0736 0.4823 5.3680 2.5887 0.1863 0.3863 3.299 1.2742 4

    5 2.4883 0.4019 7.4416 2.9906 0.1344 0.3344 4.906 1.6405 5

    6 2.9860 0.3349 9.9299 3.3255 0.1007 0.3007 6.581 1.9788 6

    7 3.5832 0.2791 12.9159 3.6046 0.0774 0.2774 8.255 2.2902 7

    8 4.2998 0.2326 16.4991 3.8372 0.0606 0.2606 9.883 2.5756 8

    9 5.1598 0.1938 20.7989 4.0310 0.0481 0.2481 11.434 2.8364 9

    10 6.1917 0.1615 25.9587 4.1925 0.0385 0.2385 12.887 3.0739 10

    11 7.4301 0.1346 32.1504 4.3271 0.0311 0.2311 14.233 3.2893 11

    12 8.9161 0.1122 39.5805 4.4392 0.0253 0.2253 15.467 3.4841 12

    13 10.6993 0.0935 48.4966 4.5327 0.0206 0.2206 16.588 3.6597 13

    14 12.8392 0.0779 59.1959 4.6106 0.0169 0.2169 17.601 3.8175 14

    15 15.4070 0.0649 72.0351 4.6755 0.0139 0.2139 18.510 3.9588 15

    16 18.4884 0.0541 87.4421 4.7296 0.0114 0.2114 19.321 4.0851 16

    17 22.1861 0.0451 105.9306 4.7746 0.0094 0.2094 20.042 4.1976 17

    18 26.6233 0.0376 128.1167 4.8122 0.0078 0.2078 20.681 4.2975 18

    19 31.9480 0.0313 154.7400 4.8435 0.0065 0.2065 21.244 4.3861 19

    20 38.3376 0.0261 186.6880 4.8696 0.0054 0.2054 21.740 4.4643 20

    21 46.0051 0.0217 225.0256 4.8913 0.0044 0.2044 22.174 4.5334 21

    22 55.2061 0.0181 271.0307 4.9094 0.0037 0.2037 22.555 4.5941 22

    23 6.2474 0.0151 326.2369 4.9245 0.0031 0.2031 22.887 4.6475 23

    24 79.4968 0.0126 392.4842 4.9371 0.0025 0.2025 23.176 4.6943 24

    25 95.3962 0.0105 471.9811 4.9476 0.0021 0.2021 23.428 4.7352 25

    30 237.3763 0.0042 1181.8816 4.9789 0.0008 0.2008 24.263 4.8731 30

    35 590.6682 0.0017 2948.3411 4.9915 0.0003 0.2003 24.661 4.9406 35

    40 1469.7716 0.0007 7343.8578 4.9966 0.0001 0.2001 24.847 4.9728 40

    45 3657.2620 0.0003 18281.3099 4.9986 0.0001 0.2001 24.932 4.9877 45

    50 9100.4382 0.0001 45497.1908 4.9995 a 0.2000 24.970 4.9945 50

    60 56347.5144 a 281732.5718 4.9999 a 0.2000 24.994 4.9989 60

    80 2160228.4620 a 10801137.3101 5.0000 a 0.2000 25.000 5.0000 80

    5.0000 0.2000

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    lnterest and Annuity

    Tables for Continuous

    compounding

    For various values of r from 8% to 20%,

    r = nominal interest rate per period, compounded continuourty

    N = number of compounding periods

    (F/P,r%,N) =

    (P/F,1%,N) = =

    (F/ A,r%,N) =

    (P / A,r%,N) =

    APPENDIXD

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    TABLE C-18 Discrete Compounding; i= 25%

    Single Payment Uniform Series Uniform Gradient

    Compound Present Compound Present Sinking capital Gradient Gradient

    Amount Worth Amount Worth Fund recovery Present Worth Uniform Series

    Factor Factor Factor Factor Factor Factor Factor Factor

    To Find F To Find P To Find F To Find P To Find A To Find A To Find P To Find A

    Given P Given F Given A Given A Given F Given P Given G Given G

    N F/P P/F F/A P/A A/F A/P P/G A/G N

    1 1.2500 0.8000 1.0000 0.8000 1.0000 1.2500 0.000 0.0000 1

    2 1.5625 0.6400 2.2500 1.4400 0.4444 0.6944 0.640 0.4444 2

    3 1.9531 0.5120 3.8125 1.952 0.2623 0.5123 1.664 0.8525 34 2.4414 0.4096 5.7656 2.3616 0.1734 0.4234 2.893 1.2249 4

    5 3.0518 0.3277 8.2070 2.6893 0.1218 1.3718 4.204 1.5631 5

    6 3.8147 0.2621 11.2588 2.9514 0.0888 0.3388 5.514 1.8683 6

    7 4.7684 0.2097 15.0735 3.1611 0.0663 0.3163 6.773 2.1424 7

    8 5.9605 0.1678 19.8419 3.3289 0.0504 0.3004 7.947 2.3872 8

    9 7.4506 0.1342 25.8023 3.4631 0.0388 0.2888 9.021 2.6048 9

    10 9.3132 0.1074 33.2529 3.5705 0.0301 0.2801 9.987 2.7971 10

    11 11.6415 0.859 42.5661 3.6564 0.0235 0.2735 10.846 2.9663 11

    12 14.5519 0.687 54.2077 3.7251 0.0184 0.2684 11.602 3.1145 12

    13 18.1899 0.0550 68.7596 3.7801 0.0145 0.2645 12.262 3.2437 13

    14 22.7374 0.0440 86.9495 3.8241 0.0115 0.2615 12.833 3.3559 14

    15 28.4217 0.0352 109.6868 3.8593 0.0091 0.2591 13.326 3.4530 15

    16 35.5271 0.0281 138.1085 3.8874 0.0072 0.2572 13.748 3.5366 16

    17 44.4089 0.0225 173.6357 3.9099 0.0058 0.2558 14.109 3.6084 17

    18 55.5112 0.018 218.0446 3.9279 0.0046 0.2546 14.415 3.6698 18

    19 69.3889 0.0144 273.5558 3.9424 0.0037 0.2537 14.674 3.7222 19

    20 86.7362 0.0115 342.9447 3.9539 0.0029 0.2529 14.893 3.7667 2021 108.4202 0.0092 429.6809 3.9631 0.0023 0.2523 15.078 3.8045 21

    22 135.5253 0.0074 538.1011 3.9764 0.0019 0.2519 15.233 3.8365 22

    23 16.4066 0.0059 673.6264 3.9764 0.0015 0.2515 15.363 3.8634 23

    24 211.7582 0.0047 843.0329 3.9811 0.0012 0.2512 15.471 3.8861 24

    25 264.6978 0.0038 1054.7912 3.9849 0.0009 0.2509 15.562 3.9052 25

    30 807.7936 0.0012 3227.1743 3.9950 0.0003 0.2503 15.832 3.9628 30

    35 2465.1903 0.0004 9856.7613 3.9984 0.0001 0.2501 15.937 3.9858 35

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    40 7523.1638 0.0001 30088.6554 3.9995 a 0.2500 15.977 3.9947 40

    45 22958.874 a 91831.4962 3.9998 a 0.2500 15.992 3.9980 45

    50 70064.9232 a 280255.6929 3.9999 a 0.2500 15.997 3.9993 50

    60 652530.4468 a 2610117.7872 4.0000 a 0.2500 16.0000 3.9999 60

    4.0000 0.2500

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    INTEREST AND ANNUITY TABLES FOR CONTINOUS COMPOUNDING 651

    TABLE D-1 Continous Compounding; r = 8%

    Discrete Flows

    Single Payment Uniform Series

    Compound Present Compound Present

    Amount Worth Amount Worth

    Factor Factor Factor Factor

    To Find F To Find P To Find F To Find P

    Given P Given F Given A Given A

    N F/P P/F F/A P/A N

    1 1.0833 0.9231 1.0000 0.9231 1

    2 1.1735 0.8521 2.0833 1.7753 2

    3 1.2712 0.7866 3.2568 2.5619 3

    4 1.3771 0.7261 4.5280 3.2880 4

    5 1.4918 0.6703 5.9052 3.9584 5

    6 1.6161 0.6188 7.3970 4.5771 6

    7 1.7507 0.5712 9.0131 5.1483 7

    8 1.8965 0.5273 10.7637 5.6756 8

    9 2.0544 0.4868 12.6602 6.1624 9

    10 2.2255 0.4493 14.7147 6.6117 10

    11 2.4109 0.4148 16.9402 7.0265 11

    12 2.6117 0.3829 19.3511 7.4094 12

    13 2.8292 0.3535 21.9628 7.7629 13

    14 3.0649 0.3263 24.7920 8.0891 14

    15 3.3201 0.3012 27.8569 8.3903 15

    16 3.5966 0.2780 31.1770 8.6684 16

    17 3.8962 0.2567 34.7736 8.9250 17

    18 4.2207 0.2369 38.6698 9.162 18

    19 4.5722 0.2187 42.8905 9.3807 19

    20 4.9530 0.2019 47.4627 9.5826 20

    21 5.3656 0.1864 52.4158 9.7689 21

    22 5.8124 0.172 57.7813 9.9410 22

    23 6.2965 0.1588 63.5938 10.0998 23

    24 6.812 0.1466 69.8903 10.2464 24

    25 7.3891 0.1353 76.7113 10.3817 25

    26 8.0045 0.1249 84.1003 10.5067 26

    27 8.6711 0.1153 92.1048 10.6220 27

    28 9.3933 0.1065 100.776 10.7285 28

    29 10.1757 0.0983 110.1690 10.8267 29

    30 11.0232 0.907 120.345 10.9174 30

    35 16.4446 0.0608 185.439 11.2765 35

    40 24.5325 0.0408 282.547 11.5172 40

    45 36.5982 0.0273 427.416 11.6786 45

    50 54.5982 0.0183 643.535 11.7868 5055 81.4509 0.0123 965.947 11.8593 55

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    60 121.510 0.0082 1446.93 11.9078 60

    65 181.272 0.0055 2164.47 11.9404 65

    70 270.426 0.0037 3234.91 11.9623 70

    75 403.429 0.0025 4831.83 11.9769 75

    80 601.845 0.0017 7214.15 11.9867 80

    85 897.847 0.0011 10768.1 11.9933 85

    90 1339.43 0.0007 16070.1 11.9977 90

    95 1998.20 0.0005 23979.7 12.0007 95 10

    0 2980.96 0.0003 35779.3 12.0026

    10

    0

    652 APPENDIX D/ INTEREST AND ANNUITY TABLES FOR CONTINOUS COMPOUNDING

    TABLE D-2 Continous Compounding; r = 10%

    Discrete Flows

    Single Payment Uniform Series

    Compound Present Compound Present

    Amount Worth Amount Worth

    Factor Factor Factor Factor

    To Find F To Find P To Find F To Find P

    Given P Given F Given A Given A

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    N F/P P/F F/A P/A N

    1 1.1052 0.9048 1.0000 0.9048 1

    2 1.2214 0.8187 2.1052 1.7236 2

    3 1.3499 0.7408 3.3266 2.4644 3

    4 1.4918 0.6703 4.6764 3.1347 4

    5 1.6487 0.6065 6.1683 3.7412 5

    6 1.8221 0.5488 7.8170 4.2900 6

    7 2.0138 0.4966 9.6391 4.7866 7

    8 2.2255 0.4493 11.6528 5.236 8

    9 2.4596 0.4066 13.8784 5.6425 9

    10 2.7183 0.3679 16.3380 6.0104 10

    11 3.0042 0.3329 19.0536 6.3433 11

    12 3.3201 0.3012 22.0604 6.6445 12

    13 3.6693 0.2725 25.3806 6.9170 13

    14 4.0552 0.2466 29.0499 7.1636 14

    15 4.4817 0.2231 33.1051 7.3867 15

    16 4.953 0.2019 37.5867 7.5886 16

    17 5.4739 0.1827 42.5398 7.7713 17

    18 6.0496 0.1653 48.0137 7.9366 18

    19 6.6859 0.1496 54.0634 8.0862 19

    20 7.3891 0.1353 60.7493 8.2215 20

    21 8.1662 0.1225 68.1383 8.3440 21

    22 9.025 0.1108 76.3045 8.4548 22

    23 9.9742 0.1003 85.3295 8.5550 23

    24 11.0232 0.0907 95.3037 8.6458 2425 12.1825 0.0821 106.327 8.7278 25

    26 13.4637 0.0743 118.509 8.8021 26

    27 14.8797 0.0672 131.973 8.8693 27

    28 16.4446 0.0608 146.853 8.9301 28

    29 18.1741 0.0550 163.298 8.9852 29

    30 20.0855 0.0498 181.472 9.0349 30

    35 33.1155 0.0302 305.364 9.2212 35

    40 54.5981 0.0183 509.629 9.3342 40

    45 90.0171 0.0111 846.404 9.4027 45

    50 148.413 0.0067 1401.65 9.4443 5055 244.692 0.0041 2317.10 9.4695 55

    60 403.429 0.0025 3826.43 9.4848 60

    65 665.142 0.0015 6314.88 9.4940 65

    70 1096.63 0.0009 1401.65 9.4997 70

    75 1808.04 0.0006 17182.0 9.5031 75

    80 2980.96 0.0003 28334.4 9.5051 80

    85 4914.77 0.0002 46721.7 9.5064 85

    90 8103.08 0.0001 77037.7 9.5072 90

    95 13359.7 a 127019.0 9.5076 95

    100 22026.5 a 209425.0 9.5079 100

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    INTEREST AND ANNUITY TABLES FOR CONTINOUS COMPOUNDING 653

    TABLE D-3 Continous Compounding; r = 20%

    Discrete Flows

    Single Payment Uniform Series

    Compound Present Compound Present

    Amount Worth Amount Worth

    Factor Factor Factor Factor

    To Find F To Find P To Find F To Find P

    Given P Given F Given A Given A

    N F/P P/F F/A P/A N

    1 1.2214 0.8187 1.0000 0.8187 1

    2 1.4918 0.6703 2.2140 1.4891 2

    3 1.8221 0.5488 3.7132 2.0379 3

    4 2.2255 0.4493 5.5353 2.4872 4

    5 2.7183 0.3679 7.7609 2.8551 5

    6 3.3201 0.3012 10.4792 3.1563 6

    7 4.0552 0.2466 13.7993 3.4029 7

    8 4.9530 0.2019 17.8545 3.6048 8

    9 6.0496 0.1653 22.8075 3.7701 9

    10 7.3891 0.1353 28.8572 3.9054 1011 9.0250 0.1108 36.2462 4.0162 11

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    12 11.0232 0.0907 45.2712 4.1069 12

    13 13.4637 0.0743 56.2944 4.1812 13

    14 16.4446 0.0608 69.7581 4.2420 14

    15 20.0855 0.0498 86.2028 4.2918 15

    16 24.5325 0.0408 106.288 4.3325 16

    17 29.9641 0.0334 130.8210 4.3659 17

    18 36.5982 0.0273 160.785 4.3932 18

    19 44.7012 0.0224 197.383 4.4156 19

    20 54.5981 0.0183 242.0840 4.4339 20

    21 66.6863 0.0150 296.6820 4.4489 21

    22 81.4509 0.0123 363.3690 4.4612 22

    23 99.4843 0.0101 444.820 4.4713 23

    24 121.510 0.0082 544.3040 4.4795 24

    25 148.413 0.0067 665.814 4.4862 25

    26 181.272 0.0055 814.227 4.4917 26

    27 221.406 0.0045 995.500 4.4963 27

    28 270.426 0.0037 1216.910 4.5000 28

    29 330.299 0.0030 1487.33 4.5030 29

    30 403.429 0.0025 1817.63 4.5055 30

    35 1096.63 0.0009 4948.60 4.5125 35

    40 2980.96 0.0003 13459.4 4.5151 40

    45 8103.08 0.0001 36594.3 4.5161 45

    50 22026.5 a 99481.4 4.5165 50

    55 59874.1 a 270426.0 4.5166 55

    60 162755.0 a 735103.0 4.5166 60

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    Standard NormalDistribution

    The standard normal distribution is a normal (Gaussian) distribution with a mean of 0

    and a variance of 1. It is a continuous diskibution with a range of - to +. The

    tabled values denote the probability of observing a value from minus infinity to the Z

    value indicated by the left column and top row.lhezvalue is determined by applying the

    following formula to the observed data:

    Z:(X- )/.

    APPENDIXE

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    Interested readers are referred to any introductory statistics text book for an In-depth

    discussion of the use of the standard normal distribution function.

    654

    STANDART NORMAL DISTRIBUTION 655

    z 0 0.01 0.02 0.03 0.04 0.05 0.06 0.07 0.08 0.09

    -3.4 0.0003 0.0003 0.0003 0.0003 0.0003 0.0003 0.0003 0.0003 0.0003 0.0002

    -3.3 0.0005 0.0005 0.0005 0.0004 0.0004 0.0004 0.0004 0.0004 0.0004 0.0003

    -3.2 0.0007 0.0007 0.0006 0.0006 0.0006 0.0006 0.0006 0.0005 0.0005 0.0005

    -3.1 0.0010 0.0009 0.0009 0.0009 0.0008 0.0008 0.0008 0.0007 0.0007 0.0007

    -3.0 0.0013 0.0013 0.0013 0.0012 0.0012 0.0011 0.0011 0.0011 0.0010 0.0010

    -2.9 0.0019 0.0018 0.0017 0.0017 0.0016 0.0016 0.0015 0.0015 0.0014 0.0014

    -2.8 0.0026 0.0025 0.0024 0.0023 0.0023 0.0022 0.0021 0.0021 0.0020 0.0019

    -2.7 0.0035 0.0034 0.0033 0.0032 0.0031 0.0030 0.0029 0.0028 0.0027 0.0026

    -2.6 0.0047 0.0045 0.0044 0.0043 0.0041 0.0040 0.0039 0.0038 0.0037 0.0036

    -2.5 0.0062 0.0060 0.0059 0.0057 0.0055 0.0054 0.0052 0.0051 0.0049 0.0048

    -2.4 0.0082 0.0080 0.0078 0.0075 0.0073 0.0071 0.0069 0.0068 0.0066 0.0064

    -2.3 0.0107 0.0104 0.0103 0.0099 0.0096 0.0094 0.0091 0.0089 0.0087 0.0084

    -2.2 0.0139 0.0136 0.0132 0.0129 0.0125 0.0122 0.0119 0.0116 0.0113 0.0110

    -2.1 0.0179 0.0174 0.0170 0.0166 0.0162 0.0158 0.0154 0.0150 0.0146 0.0143

    -2.0 0.0228 0.0222 0.0217 0.0212 0.0207 0.0202 0.0197 0.0192 0.0118 0.0183

    -1.9 0.0287 0.0281 0.0274 0.0268 0.0262 0.0256 0.0250 0.0244 0.0239 0.0233

    -1.8 0.0359 0.0352 0.0344 0.0336 0.0329 0.0322 0.0314 0.0307 0.0301 0.0294

    -1.7 0.0446 0.0436 0.0427 0.0418 0.0409 0.0401 0.0392 0.0384 0.0375 0.0367

    -1.6 0.0548 0.0537 0.0526 0.0516 0.0505 0.0495 0.0485 0.0475 0.0465 0.0455

    TABLE E-1 Areas under the normal curve

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    -1.5 0.0668 0.0655 0.0643 0.0630 0.0618 0.0606 0.0594 0.0582 0.0571 0.0559

    -1.4 0.0808 0.0793 0.0778 0.0764 0.0749 0.0735 0.0722 0.0708 0.0694 0.0681

    -1.3 0.0968 0.0951 0.0934 0.0918 0.0901 0.0885 0.0869 0.0853 0.0838 0.0823

    -1.2 0.1151 0.1131 0.1112 0.1093 0.1075 0.1056 0.1038 0.1020 0.1003 0.0985

    -1.1 0.1357 0.1335 0.1314 0.1292 0.1271 0.1251 0.1230 0.1210 0.1190 0.1170

    -1.0 0.1587 0.1562 0.1539 0.1515 0.1492 0.1469 0.1446 0.1423 0.1401 0.1379

    -0.9 0.8141 0.1841 0.1788 0.1762 0.1736 0.1711 0.1685 0.1660 0.1635 0.1611

    -0.8 0.2119 0.2090 0.2061 0.2033 0.2005 0.1977 0.1949 0.1922 0.1894 0.1867

    -0.7 0.2420 0.2389 0.2358 0.2327 0.2296 0.2266 0.2236 0.2206 0.2177 0.2148

    -0.6 0.2743 0.2709 0.2676 0.2643 0.2611 0.2578 0.2546 0.2514 0.2483 0.2451

    -0.5 0.3085 0.3050 0.3015 0.2981 0.2946 0.2912 0.2877 0.2843 0.2810 0.2776

    -0.4 0.3446 0.3409 0.3372 0.3336 0.3300 0.3264 0.3228 0.3192 0.3156 0.3121

    -0.3 0.3821 0.3783 0.3745 0.3707 0.3669 0.3632 0.3594 0.3557 0.3520 0.3483

    -0.2 0.4207 0.4168 0.4129 0.4090 0.4052 0.4013 0.3974 0.3936 0.3897 0.3859

    -0.1 0.4602 0.4562 0.4522 0.4483 0.4443 0.4404 0.4364 0.4325 0.4286 0.4247

    0.0 0.5000 0.4960 0.4920 0.4880 0.4840 0.4801 0.4761 0.4721 0.4681 0.4641

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    656 APPENDIX E / STANDART NORMAL DISTRIBUTION

    z 0 0.01 0.02 0.03 0.04 0.05 0.06 0.07 0.08 0.09

    0 0.5000 0.5040 0.5080 0.5120 0.5160 0.5199 0.5239 0.5279 0.5319 0.5359

    0.1 0.5398 0.5438 0.5478 0.5517 0.5557 0.5596 0.5636 0.5675 0.5714 0.5753

    0.2 0.5793 0.5832 0.5871 0.5910 0.5948 0.5987 0.6026 0.6064 0.6103 0.6141

    0.3 0.6179 0.6217 0.6255 0.6293 0.6331 0.6368 0.6406 0.6443 0.648 0.6517

    0.4 0.6554 0.6591 0.6628 0.6664 0.6700 0.6736 0.6772 0.6808 0.6844 0.6879

    0.5 0.6915 0.695 0.6985 0.7019 0.7054 0.7088 0.7123 0.7157 0.719 0.7224

    0.6 0.7257 0.7291 0.7324 0.7357 0.7389 0.7422 0.7454 0.7486 0.7517 0.7549

    0.7 0.7580 0.7611 0.7642 0.7673 0.7704 0.7734 0.7764 0.7794 0.7823 0.7852

    0.8 0.7881 0.7910 0.7939 0.7967 0.7995 0.8023 0.8051 0.8078 0.8106 0.8133

    0.9 0.8159 0.8186 0.8212 0.8238 0.8264 0.8289 0.8315 0.8340 0.8365 0.8389

    1.0 0.8413 0.8438 0.8461 0.8485 0.8508 0.8531 0.8554 0.8577 0.8599 0.8621

    1.1 0.8643 0.8665 0.8686 0.8708 0.8729 0.8749 0.8770 0.879 0.8810 0.883

    1.2 0.8849 0.8869 0.8888 0.8907 0.8925 0.8944 0.8962 0.8980 0.8997 0.9015

    1.3 0.9032 0.9049 0.9066 0.9082 0.9099 0.9115 0.9131 0.9147 0.9162 0.9177

    1.4 0.9192 0.9207 0.9222 0.9236 0.9251 0.9265 0.9278 0.9292 0.9306 0.9319

    1.5 0.9332 0.9345 0.9357 0.9370 0.9382 0.9394 0.9406 0.9418 0.9429 0.9441

    1.6 0.9452 0.9463 0.9474 0.9484 0.9495 0.9505 0.9515 0.9525 0.9535 0.9545

    1.7 0.9554 0.9564 0.9573 0.9582 0.9591 0.9599 0.9608 0.9616 0.9625 0.9633

    1.8 0.9641 0.9649 0.9656 0.9664 0.9671 0.9678 0.9686 0.9693 0.9699 0.9706

    1.9 0.9713 0.9719 0.9726 0.9732 0.9738 0.9744 0.975 0.9756 0.9761 0.9767

    2.0 0.9772 0.9778 0.9783 0.9788 0.9793 0.9798 0.9803 0.9808 0.9812 0.9817

    2.1 0.9821 0.9826 0.9830 0.9834 0.9838 0.9842 0.9846 0.985 0.9854 0.9857

    2.2 0.9861 0.9864 0.9868 0.9871 0.9875 0.9878 0.9881 0.9884 0.9887 0.989

    2.3 0.9893 0.9896 0.9898 0.9901 0.9904 0.9906 0.9909 0.9911 0.9913 0.9916

    2.4 0.9918 0.9920 0.9922 0.9925 0.9927 0.9929 0.9931 0.9932 0.9934 0.9936

    2.5 0.9938 0.9940 0.9941 0.9943 0.9945 0.9946 0.9948 0.9949 0.9951 0.9952

    2.6 0.9953 0.9955 0.9956 0.9957 0.9959 0.9960 0.9961 0.9962 0.9963 0.9964

    2.7 0.9965 0.9966 0.9967 0.9968 0.9969 0.9970 0.9971 0.9972 0.9973 0.9974

    TABLE E-1 (continued)

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    2.8 0.9974 0.9975 0.9976 0.9977 0.9977 0.9978 0.9979 0.9979 0.9980 0.9981

    2.9 0.9981 0.9982 0.9982 0.9983 0.9984 0.9984 0.9985 0.9985 0.9986 0.9986

    3.0 0.9987 0.9987 0.9987 0.9988 0.9988 0.9989 0.9989 0.9989 0.9990 0.999

    3.1 0.9990 0.9991 0.9991 0.9991 0.9992 0.9992 0.9992 0.9992 0.9993 0.9993

    3.2 0.9993 0.9994 0.9994 0.9994 0.9994 0.9994 0.9994 0.9995 0.9995 0.9995

    3.3 0.9995 0.9995 0.9996 0.9996 0.9996 0.9996 0.9996 0.9996 0.9996 0.9997

    3.4 0.9997 0.9997 0.9997 0.9997 0.9997 0.9997 0.9997 0.9997 0.9997 0.9998

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    APPENDIXF

    Selected References

    Au, T., and T.P. Au. Engineering Economic for capital Investment Analysis,2nd ed.

    (Boston: Allyn and Bacon, 1992).

    BARISH, N.N., and S. KAPLAN. Economic analysis for Engineering and Managerial

    Decision Making (New York McGraw-Hill,1978).

    BIERMAN, H., JR., and S. SMIDT. The capital Budgeting Decision,8th ed. (New york:

    Macmillan, L993).

    BLANK, L.T., and AJ. TARQUIN. Engineering Economy,6th ed. (New york: McGraw-

    Hill,2005).

    BOWMAN, M.S. Applied Economic Analysis for Technologists,Engineersa, and

    Managers, 2nd ed. (Upper Saddle River, NJ: Prentice Hall, 2003).

    BRIMSON, J.A.Activity Accounting: An Activity-Based Approach( New york John Wiley

    & Sons,1991).

    BUSSEY,L .E., and T.G. ESCHENBACH. The Economic Analysis of lndustrial Projects,

    2nd ed. (Upper Saddle River, N]: Prentice Hall,1992).

    CAMPEN, J.T.Benefit, cost, and Beyond (cambridge, MA: Ballinger publishing

    Company, 1986).

    CANADA, J.R., and W.G. SULLIVAN. Economic and Multiattribute Analysis of Advanced

    Manufacturing systems(Upper Saddle River, NJ: prentice Hall, 1989).

    CANADA, J.R., and W.G. SULLIVAN, D.J. KULONDA and J.A. WHITE. Capital

    Investment Decision Analysis for Engineering and Management, 3rd ed. (upper

    saddle River, NJ: Prentice Hall, 2005).

    CLARK, J.J.,T.J. HINDELANG, and R.E. PRITCHARD. Capital Budgeting: planning and

    Control of Capital Expenditures (upper saddle River, NJ: prentice Hall,1979).

    COLIER, C.A., and C.R. GRAGADA. Engineering Cost Analysis, 3rd ed. (New york:

    Harper & Row, 1998).

    Engineering Economist,The. A quarterly journal jointly published by the Engineering

    Economy Division of the American Society for Engineering Education and the

    Institute of Industrial Engineers. Published by IIE, Norcross, GA.

    Engineering News-Record. Published monthly by McGraw-Hill, New York.

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    ESCHENBACH, T.G. Engineering Economy: Applaying Theory to Practice (Chicago:

    Richard D. Irwin, 1995)

    FABRYCKY,W.J., G.J. THUESEN, and D. VERMA. Economic decision Analysis,3rd ed.

    (Upper Saddle River, NJ: Prentice Hall, 1998).

    FLEISCHER, G.A. lntroduction to Engineering Economy(Boston: PWS Publishing

    Company,1994).

    GOICOECHEA, G.A., D.R. HANSEN, and L. DDUCKSTEIN. Multiobjective decision

    Analysis with Engineering and Busines Applications ( New York: John Wiley &

    Sons,1982).

    GRANT, E.L., W.G. IRESON, and R.S. Leavenworth. Principeles of Engineering

    Economy, 8th ed. (New York: John Wiley & Sons, 1990).

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    658 APPENDIX F / SELECTED REFERENCES

    HULL, J.C. The Evaluation of Risk in Business Investment(New York: Pergamon Press

    1980).

    Industrial Engineering A monthly magazine published by the Institute of Industrial

    Engineers, Norcross, GA.

    lnternal Revenue Service Publication 534. Depreciation. U.S. Government Printing

    Office, revised periodically.

    JELEN, F.C., and J.H. BLACK. Cost and Optimization Engineering, 3rd ed. (New York:

    McGraw-Hill,1991).

    JONES, B.W. lnflation in Engineering Economic Analysis (New York: John wiley &

    Sons,1982).

    KAHL, A.L., and W.F. Rentz. Spreadsheet Applications in Engineering Economics (St.

    Paul, MN West Publishing Company, 1992).

    KAPLAN, R.S., and R. Cooper. The Design of Cost Management Systems (Upper Saddle

    River, NJ: Prentice Hall, 1999).

    KEENEY, R.L., and H. RRAIFFA. Decisions with Multiple Objectives Preferences and

    Value Trade-offs (New York: John Wiley & Sons, 1976).

    LASSER ,J.K. Your lncome Tax[New York Simon & Schuster (see latest edition)].

    MALLIK, A.K.Engineering Economy with Computer Applications (Mahomet, IL:

    Engineering Technology, 1979 ).

    MATTEWS L.M. Estimating Manufacturing Casts: A Practical Guide for Managers and

    Estimators ( New York McGraw-Hill, 1983).

    MERRETT, A.J., and A. SYKES. The Finance and Analysis of Capital Projects (New York:

    John Wiley & Sons, 1963).

    MISHAN, E.J. Cost-Benefit analysis (New York Praeger Publishers,1976).

    MORRIS, W.T. Engineering Economic analiysis (Reston, V A: Reston Publishing, 1976).

    NEWNAN, D.G., T.G. ESCHENBACH, and J.P. LAVELLE, Engineering Economic Analysis,

    9th ed. (San ]ose, CA: Engineering Press, 2004).

    OSTWARD, P.F. Engineering Cost Estimating, 3rd ed. (Upper Saddle River, NJ:

    Prentice Hall,l992).

    PARK, C.S. Contemporary Engineering Economics (Upper Saddle River, NJ: Prentice

    Hall,2002).

    PARK, C.S., and G.P. SHARP-BETTE. Advanced Engineering Economics (New York: ]

    ohn Wiley & Sons, 1990)

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    Selected references 659

    PARK, W.R., and D.E. JACKSON. Cost Engineering Analysis: A Guide to Economic

    Evaluation of Engineering Projects,2nd ed. (New York John Wiley & Sons,1984).

    PORTER, M.E. Competitive Strategy: Techniques for Analyzing lndustries and

    Competitors (New York: The Free Press, 1980).

    RIGGS, J.L., D.D. BEDWORTH, and S.V. RANDHAWA. Engineering Economics, 4th ed

    (New York McGraw-Hill, 1996).

    SMITH, G.W. Engineering Economy: The Analysis of Capital Expenditures, 4th ed.

    (Ames,IO: Iowa State University Press, 1987).

    STEINER, H.M. Engineering Economic Principles, 2nd ed. (New York: McGraw-Hill,

    1996)

    STERMOLE, F.J., and J.M. STERMOLE. Economic Evaluation and lnvestment Decision

    Methods,6th ed. (Golden, CO: investment Evaluations Corp., 1997).

    STEWART, R.D. Cost Estimating (New York John Wiley & Sons, 1982).

    STEWART, R.D., R.M. Wyskida, and J.D. JOHANNES, eds. Cost Estimators' Reference

    Manual, 2nd ed. (New York John Wiley & Sons, 1995).

    TAYLOR, G.A. Managerial and Engineering Economy, 3rd ed. (New York Van Nostrand

    Reinhold, 1980).

    THUESEN, G.J., and W.J. FABRYCKY. Engineering Economy, 9th ed. (Upper Saddle

    River, NJ: Prentice Hall 2001).VANHORNE, J.C. Financial Management and Policy,8th ed. (Upper Saddle River, NJ:

    Prentice Hall, 1989).

    WEINGARTNER, H.M. Mathematical Programming and the analysis of Capital

    Budgeting Problems (Englewood Cliffs, NJ: Prentice-Hall, 1975).

    WHITE, J.A., K.E. Case, D.B. PRATT, and M.H. AGEE. Principles of Engineering

    Economic Analysis, 4th ed. (New York: John Wiley & Sons, 1998).

    WOODS, D.R. Financial Decision Making in the Process Industry (Englewood Cliffs,

    NJ): Prentice-Hall, 1975).

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    APPENDIXG

    Answers to Selected

    Problems

    CHAPTER 2

    2-12 a. D* = 2,425 circuit

    boards/month

    b. Profit = $75,612.50/month

    (maximum profit)

    c. D = 480.6 481 circuit

    boards/month

    D = 4,369.4 4,369

    circuit boards/month

    d. 481 to 4,369 circuit boards

    per month

    2-14 D* 240 units per month

    Profit = $4,960 per monthD = 18 units/month

    D= 462 units/month

    2-18 a. D* 50 units per month

    b.

    for D > 1. Therefore, D* = 50

    is a point of maximum profit.

    2-19 X = l5.64 megawatts

    2-21 D' = 3,112pumps/month;

    D' = 2,404pumps/month;

    22.75% reduction

    2-27 R-30; LCC = $19,513.00

    2-30 $4,448

    2-37 a. Either machine

    b. Machine A

    2-39 Process 1 ; Profit : $2,640/ day

    2-39 a. Speed B; cost/piece : $0.104

    2-43 Method 1; Profit - $10,974,A0A

    2-53 Select (a)

    2-54 Select (b)

    2-55 Select (c)

    2-59 Select (d)

    CHAPTER 3

    3-4 = $262,78A.27

    3-6 a. = 154.9

    = 203.4

    b. = $412,710

    3-7 a. = 176

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    b. = 144.5

    = $797,696

    3-l I a. $630A/year

    3-15 $11,54

    3-22 a. y = 31.813 + 0.279 x

    b. R = 0.99

    c. y = $101.56

    3-26 x = 4,497 units

    3-29 Total Cost = $2,239,046

    3-30 s = 0.9 (90% learning curve)

    3-38 Select (d)

    3-39 Select (c)

    3-40 Select (b)

    3-42 Select (d)

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    ANSWERS TO SELECTED PROBLEMS 661

    CHAPTER 4

    I = $4,250

    I = $7,560

    F = $13,382

    P = $31,775

    i = 2.17% per yearA = $2,925

    P = $8,865

    A = $3,397.50

    Fr= $124,966

    a. N8years.

    b. I = 15.11%

    c.P = $720.96

    d. A= $277.40

    Select D; F = $13,490

    A = -$581.86

    P = $33,511.70

    Z = $3,848.15

    i' /year = 11.55% per year

    W = $714.25

    P= -$165,104

    A = $1,203.69

    Z = $608.21

    P = $100(P / A,10%,4 + $100(P/G ,

    10%,8)

    A = $124.34

    Q= $435.75

    N = 8 years

    A = $2,790.73

    X = $5,573.25

    a. 10.25%

    b. 10.38%

    c. 10.51%

    Select D; A = $1,430

    P = $4,729.87

    N = 30 months

    i/yr = 8.24%

    F = $6,340.50

    Select (c); A = $312

    F = $17,303.19

    a. False; b. False; c. False;

    d. True; e. False; f. True;

    g. False; h. False; i, False;

    4-99 Z = $1,421.67

    4-103 A = $1,320.66

    4-106 a. True b. True c. False

    d. False e. False

    4-114 Select( e)

    4-116 Select(d )

    4-717 Select (c)

    4-1 19 Select(d )

    4-121 Select (c)

    4-122 Select (a)

    4-123 Select (c)

    CHAPTER 5

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    5-2 N = 72 months

    5-4 PW (12%) = $13,423.57

    5-5 PW (15%) = $2,911.60

    Fw (15%) = $5,855.60

    AW (15%) = $868.70

    5-8 PW (15%) = $352,650> 0;

    Invest in the new product line.

    5-12 a. = $7,688.96

    b. A = $150,992.90

    5- 14 i'% = 7.5% per six months

    5-17 PW of 5 yr lining = $5,514.72

    PW 10 yr lining = $9,003.56

    5-21 A = $4,490/year

    5-25 AW (of costs) = $20,736.30 per

    year

    5-27 a. As i , the PW approaches -

    $3,000

    b. = 6 years

    c. PW(0%) = -$1,000

    AW(0%) = -$166.70

    5-30 APR = 22.8% compounded monthly

    5-33 = 51.1% Per year.

    5-34 i = 14 %

    5-38 a. I5.2% b. 18.8% c. 21.5%

    d. 20%

    5-41 i = 1.24% per year

    5-43 a. ' = 6 years

    b. i'%= 29.4% per year

    5-49 a. i = 1/2% and 28.8% per year.b. i' = 21.15%;ERR > 20% accept

    project.

    5-51 a. PW = 1.710 X + 26.006Y

    b. AW = 0.2732X + 4.1558Y

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    ANSWER TO SELECTED PROBLEMS

    CHAPTER 4

    1 I= $4,250

    2 I= $7,560

    3 F = $13,382

    9 P = $31,775

    11 i = 2.17% per year

    14 A = $2,925

    17 P = $8,865

    20 A = $3,397.50

    24 F4 = $124,966

    25 a. N - 8 years.

    b. i =15.11%

    c. P = $720.96

    d. A = $277.40

    29 Select D; F4 = $13,490

    33 A = - $681.86

    35 P = $33,511.70

    38 Z $3,848.15

    42 i'/year =11.55% per year

    45 W = $714.25

    48 Po = $165,104 1 A = $1,203.69

    53 Z = $608.21

    58 Po = $100(P/A, 10%, 4) + $100(P/G,

    10%, 8)

    60 A = $124.34

    64 Q = $435.75

    65 N = 8 years ;

    69 A = $2,790.73

    73 X = $5,573.25

    77 a. 10.25%

    4-99 Z = $1,421.67

    4-103 A = $1,320.66

    4-106 a. True b. Truec.

    False

    d. False e. False

    4-114 Select (e)

    4-116 Select (d)

    4-117 Select (c)

    4-119 Select (d)

    4-121 Select (c)

    4-122 Select (a)

    4-123 Select (c)

    CHAPTER 5

    5-2 N = 72 months

    5-4 PW(12%) = -$13,423.57

    5-5 PW(15%) = $2,911.60

    FW(15%) = $5,855.60

    AW(15%) $868.70

    5-8 PW(15%) $352,650 > 0;

    invest in the new product line.

    5-12 a. VN = $7,688.96

    b. A = $150,892.90

    5-14 i'% = 7.5% per six months

    5-17 PW of 5 yr lining = $5,614.72

    PW 10 yr lining = $9,003.56

    5-21 A = 54,490/year

    5-25 AW (of costs) = $20,736.30 per

    149

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    ANSWER TO SELECTED PROBLEMS

    5-52 a. IIW = 59.91 Y

    b. A = 9.908Y

    5-63 Select (d)

    5-64 Select (a)

    5-67 Select (c)

    5-69 Select (e)

    5-70 Select (c)

    5-72 Select (d)

    CHAPTER 6

    6-2 Select Design D3 for PW, FW, and AW

    6-4 Select Design C; AW,(20%) = $16,245

    6-7 Select Alternative B; PWB(20%) $9,180

    6-12 Select Alternative Al; AW(18%)

    $13,492

    6-14 Select Design A; AWA(6%) = -

    $48,594/mile, PWA (6%) = -

    $557,273/mile

    6-17 Select Alternative Y; PWy(5%) =

    $40,885.54

    6-21 a. Standard light bulb is less expensive

    by $0.44 per year

    6-25 a. Select A; AWA = -$12,053.60

    b. Select A; AWA = -$12,053.60

    6-27 a. Select Alternative El; AWE,(15%)

    = -$16,990

    b. Select Alternative El; AWE'(15%)

    = -$16,990

    6-30 Select Bridge Design L; CWL(15%)

    7-7 a. $180,550.50

    b. $14,449.50c. $43,329

    7-11 a. d3 = $3,428.57; BV5 =

    $42,857.15

    b. d3 = $6,297.38; BV5 = $27,759.86

    c. d- = $10,494; BV5, = $13,386

    d. d2 = d3=. =d14_$4,285.71

    BV5 = $40,714.30

    7-16 a. Income taxes = $18,850

    b. Depreciation + Expenses $130,000

    7-19 t =37.96%;

    t = 41.92%

    7-22 Alternative A: Plastic; AWA = -

    $1,184

    7-25 PW(15%) = $363,690 > > 0;

    investment should be made

    7-27 Design S1; AW(10%) = -$290

    7-31 N = 6 years

    7-33 X = $864,135 / year

    7-34 a. PW $171,592

    b. AW $37,115

    7-37 AW(12%) = $3,468 for both ATCF

    and EVA

    7-39 Accept Quotation II, PW = -

    $136,848

    7-46 Select (b)

    7-48 Select (c)

    7-51 Select (d)

    7-53 Select (d)

    150

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    ANSWER TO SELECTED PROBLEMS

    = -$378,733 6-32 Recommend Design

    ER1

    6-38 Select Alternative 2

    6-40 Select Design 4; PW4 = $23,433.23

    6-48 i' 21.6%; Select (c)

    6-49 X = 6.26 or 7 planes per year; Select

    (a)

    6-52 i' = 13.4% > 10%; Select (c)

    6-54 Select (e)

    6-55 Select (a)

    6-57 Select (b); PWA(15%) = $42,848

    CHAPTER7

    7-6 a. $7,142.86

    b. $11,200

    c. $5,000

    7-56 Select (d)

    7-59 Select (a)

    7-61 Select (e)

    CHAPTER 8

    8-2 N 18 years

    8-4 Alternative B, PW = -$369,080

    8-5 Alternative I, PW = $10,000

    8-11 PO(A$) = $43,755

    8-14 a. FW(A$) = $144,105

    b. FW(R$) = $44,932

    8-20 a. if, = 36.08% per year

    b. if, = 18.44% per year

    8-25 PW(18%) = -$12,233

    8-30 Select Purchase alternative;

    FW -$1,952,551

    8-38 Select (d)

    840 Select (c)

    42 Select (c)

    CHAPTER 9

    9-1 Keep the old lift truck; PW = $23,331

    9-5 Economic life = 3 years

    9-9 Keep the defender, AW = $15,383

    9-11 Reinforce the existing bridge

    9-16 Keep the defender, PW

    56,542.40, Anti

    11-14 b. Retain the steel pier, AW =

    $29,332

    11-17 Construct the levee

    11-19 a. Select Design 3

    b. Select Design 3

    11-21 Select Design B

    11-22 B-C Ratio = 1.1; Select (d)

    11-23 Select (b)

    11-25 Select (b)

    151

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    ANSWER TO SELECTED PROBLEMS

    $1,725.89

    9.19 Select Alternative B, PW S1,440,4239-23 Lease the challenger

    9-25 Relocate the existing transformers

    (Alterna tive B); CW = $54,239

    9-32 Select (a)

    9-33 Select (c)

    9-35 Select (d)

    CHAPTER 10

    10-3 =0.818

    10-5 a. MV(Alternative 2) 2,050

    b. N = 7.3 years

    10-9 X = $933,953 in annual revenues year

    10-13 a. At themost likely estimates, Design is

    marginally- preferred to B,

    b. X = 11,872 units/year

    10-18 X = 362,500,000 Btu per year

    10-21 Select

    the ABC brand motor, AW,

    = -$1,831

    10-30 Select (b)

    10-31 Select (a)

    10-34 Select (b)install Machine A

    10-38 True

    10-39 False

    CHAPTER 11

    CHAPTER 12

    12-2 The four-lane bridge should be builtnow, PW = $3-500,000

    12-4 E(X) 1,350 cubic yards

    V(X) 66,500(cubic yards)

    SD(X) = 258 cubic yards

    12-6 Select Design E, PW = $239,414

    12-7 Alternative T, Annual Cost =

    $52,435

    12-10 E(PWAT) = 533,403; implement

    the project

    12-13 a. V(PW) = 1,097.7 x 106($)2

    SD(PW) = 533,131

    b.Pr/PW > 0) = 0.57

    c. E(AW)Rs = $1,866

    The project appears questionable.

    The E(PW) is positive but the

    SD(PW) is approximately two times

    the expected value. Also the Pr[PW

    > 01 = 0.57 is only somewhat

    attractive.

    12-16 Pr(X 171) = 0.7881

    12-19 E[PW(B A)] = $5,228

    (PWA B) = $1,183.97

    12-25 Select new product, PW = $62,125

    12-27 Choose to build

    CHAPTER 13

    13-2 a. Leasing a tuck is better.

    b. The annual cost of having to

    operate without a truck, $2,000,

    is less than the minimum cost

    152

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    ANSWER TO SELECTED PROBLEMS

    11-1 Select B

    11-2 Alternative C

    11-5 Alternative B

    11-8 Expand the present facility (Alt. A)

    11-13Recommend building the dam (II)

    alternative in (a). Hence, it is

    better to operate without a truck.

    13-5 Leasing is better for case a, but

    buying is better for case b.

    13-6 Leasing is better if the life is 3

    years. It appears that a breakeven

    life is 4 years (to the nearest whole

    year).

    13-8 Objective function value = $219.89

    13-11 Objective function value= $8,822

    13-12 Recommendations differ for Projects

    A and C 13-13 R, = 10%

    CHAPTER 14

    14-5 a. Alternative 2

    b.Alternative 2

    c. Alternative 2

    14-7 Dominanceno alternatives

    eliminated SatisficinAlternative A

    eliminated

    Lexicographyno alternatives

    eliminated

    Hurwicz procedureAlternative Aeliminated

    Additive weightingAlternative B

    selected

    14-9 Alternative A

    14-11 The solution involves subjective

    factors which will vary from one

    student to another.

    14-13 Dominanceno selection

    Feasible rangesno selection

    LexicographyDomestic 2

    Additive weighting Domestic 2

    14-14 Xij 0.7 (keep tool)

    1.0 (purchase new)

    153

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    ANSWER TO SELECTED PROBLEMS

    A

    Abandonment 383, 399

    Accounting

    cost 72

    depreciation 72, 302

    fundamental equation of 71

    as source of estimates 89

    Accounting fundamentals 71

    Accuracy of cost estimates 88

    Actual dollars, definition 354

    Additive weighting method 595

    Adjusted (cost) basis 304

    After-tax cash flow analyses

    general procedure for 327

    impact of inflation on 362

    sensitivity analysis in 448

    spreadsheet example 332

    After-tax cash flow table 329

    After-tax comparisons

    equations for ATCF 328

    illustration using different methods 331-

    341 After-tax economic life 400

    Allocation of capital 548, 567

    Alternative Depreciation System (ADS)

    development of

    brainstorming, 12, 115

    Nominal Group Technique 12,115

    do-nothing (no change) 6, 263, 566

    202 essential 202

    feasible 10

    independent 480, 568

    investment 248

    mutually exclusive 247, 482, 568

    repeatability assumption 252, 274, 396,

    486

    rules for comparing by rate of return

    methods

    260

    Analysis (study) period 202, 252

    infinite 252, 397

    as a source of uncertainty 426

    Annual percentage rate (APR) 169

    Annual worth (AW) method 213, 254,

    339 spreadsheet example 220, 257, 618

    unequal lives 279, 283

    Annuity 142 d

    deferred 149

    fixed and responsive (to inflation) 360

    INDEX

    154

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    ANSWER TO SELECTED PROBLEMS

    310, 311 Alternatives

    comparison of 247, 270, 339, 387, 482

    basic philosophy 248, 251

    by benefit/cost ratio method 482

    by capitalized worth method 211, 259

    by equivalent worth methods 253 3

    by rate of return methods 260, 283

    with different useful lives 274

    contingent 572

    cost 249, 339

    coterminated assumption 252, 274, 396

    decision (selection) 14

    ordinary 149

    Answers to problems 660

    Arithmetic sequences

    interest formulas for 158-159

    modeling expenses 281

    spreadsheet example 617

    Assets 71, 327 Assumed certainty 424

    Attributes 582

    selection of 584

    weighting of 595

    Augmentation versus replacement 383,

    410 Avoidable difference 136

    B

    Balance sheet 71, 74

    Base alternative 248, 262 Base time

    period 354 Basis (cost) 304, 316

    Before-tax cash flow 328 Before-tax MARK

    322

    Benefit-cost ratio method 486, 473 :)

    after-the-fact justifications 487

    case study 489

    conventional ratio 474-476 criticisms of

    487

    distributional considerations 488

    independent projects /alternatives 480

    modified ratio 474-476 mutually

    return to 129, 201

    sources 550

    Capital allocation 548-550, 567

    Capital asset pricing model (CAPM) 553-

    555 Capital financing 548-550 Capital

    gains and losses 327

    Capital investment, fundamental purpose

    of 248 Capital rationing 203, 480 Capital

    recovery

    depreciation plus interest 214 factor

    147

    Capital sources 550

    borrowed (debt) capital 129, 551

    equity capital 129, 552

    155

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    ANSWER TO SELECTED PROBLEMS

    exclusive alternatives 482

    omitting qualitative (no monetary)

    information 489

    spreadsheet example 485

    Beta (volatility) 554

    Bibliography 657

    Bond rate 209

    Bond valuation 209

    Book cost (value) 29, 304 Borrowed

    capital 129, 551 Borrowing-lending

    terminology 139 Brainstorming 12, 115

    Breakeven analysis 38, 43, 339, 427, 615

    Breakeven chart 38, 43, 341, 431, 433,

    616 Breakeven life 230, 428 Breakeven

    point 38, 43, 341, 427

    Budget constraints 568, 572

    Budget (semi-detailed) estimates 88

    Burden 28, 74

    C

    Capacity utilization 428, 452

    Capital 128

    allocation 548-550, 567

    average weighted cost of 322, 552, 555

    borrowed 129, 322, 551

    budgets 568, 572, 564

    debt 129, 322, 551

    equity 129, 322, 552

    financing 548-550

    investment 33, 248

    leasing 564-567

    Capitalized cost 211

    Capitalized worth (CW) method 211, 259,

    397 Case (comprehensive) studies

    after taxes 338

    automobile financing 575

    benefit-cost ratio 489

    cost estimating 116

    decision tree analysis 535

    depreciation 317

    economic equivalence 179

    incremental analysis 285

    inflation 371, 410

    no monetary attributes 60, 587

    present economy 60

    process yield 231

    replacement 410

    sensitivity 450

    Cash flow(s)

    after-tax 328

    approach 13

    developing 79, 81, 116

    diagrams 133-135

    estimating 79, 81, 91

    tables 133, 136

    Certainty (assumed) 424

    Challenger (new asset) 383

    economic life 386, 390, 400

    156

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    ANSWER TO SELECTED PROBLEMS

    Charts

    breakeven 38, 43, 341, 431, 433, 616

    sensitivity 435, 438, 440, 442

    Class life 305, 310, 311, 314

    Combinations, mutually exclusive 568

    Combined (market) interest rate 354

    Common errors

    in inflation analyses 357

    in rate of return analyses 265

    in replacement analyses 412, 414

    Common unit of measurement 7

    Communication 562

    Comparison of alternatives 247, 339, 387,

    482 Compensatory models 586, 591

    Competition 36

    Compound interest 131, 168

    Compounding

    continuous, with discrete cash flows

    172, discrete 149

    more often than cash flows 170

    more often than yearly 170

    Conditional probability 532

    Constant dollars 354

    Constant percentage method 307

    Consumer Price Index 93, 353

    Consumer goods (services) 34

    Contingency 426

    Contingent projects 572 Continuous

    compounding

    nonrecurring 28

    operation and maintenance 33

    opportunity 30, 129, 385

    overhead 28, 74

    prime 76

    recurring 28

    standard 29

    sunk 29, 385

    target 110

    terminology 24

    variable 24

    Cost accounting 72

    Cost alternatives 249, 339

    Cost and revenue structure 82, 87

    Cost-capacity factor 97

    Cost basis 304, 316

    Cost-driven design optimization 45

    Cost driver 45, 96

    Cost estimating (see Estimating)

    Cost estimating relationships (CERs) 96

    development of 102

    Cost indexes (see Indexes)

    157

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    ANSWER TO SELECTED PROBLEMS

    discrete cash flows, interest formulas

    for 172-174

    Continuous random variables 501

    evaluation of projects with 512

    Conventional B-C ratio 474-476

    Correlation coefficient 107

    Cost(s) 24

    basis 304, 316

    book 29, 304

    capital recovery 213-214

    cash 29

    concepts 24

    depreciation 302 direct 28, 74

    disposal 34

    driver 45, 96

    fixed 24

    general elements of 74 incremental 25,

    57 index (see Indexes) indirect 28, 74

    investment 32

    life cycle 31, 87, 585 marginal 387,

    390, 393, 401

    noncash 29, 302

    Cost of capital 550-551, 555

    debt 552

    equity 555

    weighted average 322, 552, 555

    Cost recovery percentages 312

    Cost terminology 24

    Coterminated assumption 252, 274,

    396,397 Criteria 7, 14

    Current dollars 354

    Cycle time 55

    D

    Data sources for cost estimating 89

    Debt capital 129, 551

    Decision analysis, multiple objectives in

    583 Decision reversal (sensitivity to) 444

    Decision trees

    case study 535

    definition 526

    deterministic example 526

    general principles of diagramming 528

    with random outcomes 529

    Declining balance method 307

    Defender (old asset) 383

    economic life of 387, 393, 400

    investment value 385, 402

    Deferred annuities 150

    Deferred investments 394, 413

    Definitive (detailed) estimates 88

    Disjunctive resolution 587

    Disposal cost 34

    Disposal price (of bonds) 209 Dollars

    158

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    ANSWER TO SELECTED PROBLEMS

    Deflation (general price) 353, 354, 355

    Delphi method 90

    Dependence between pairs of projects 561

    Depreciable life. 305

    Depreciable property 302, 387

    Depreciation 72, 302

    accounting for 72, 302

    Alternative Depreciation System (ADS)

    310, 311

    basis 304, 316

    class lives (MACRS) 305, 310, 311, 314

    classical methods 303, 305

    comprehensive example 317

    constant percentage method 307

    declining percentage method 307

    General Depreciation System (GDS)

    311 half-year convention 312

    historical methods 303, 305

    illustration in after-tax analysis 330

    MACRS method 310

    MACRS rates 313

    Matheson formula 307

    present worth of 320, 330

    property class 313, 315

    recapture 327, 332

    recovery period 304, 311

    recovery rate 305, 313

    straight-line method 305

    switchover option 308

    units-of-production method 308

    useful life guidelines 311

    actual 354

    constant 354

    current 354

    real 354

    Dominance 586

    Do-nothing alternative 6, 263, 566

    E

    Economic breakeven analysis 38, 43, 339,

    427,615

    Economic decision studies, importance of

    4 Economic equivalence (case study) 179

    Economic life 384, 386-387

    after-tax 400

    of challenger 386, 390

    of defender 387, 393

    spreadsheet example 392

    Economic value 583

    Economic value added (EVA) 341

    Economy

    engineering (definition) 4

    present (studies) 50

    Effective income tax rate 322, 325

    corporate rates 324

    Effective interest rate 168, 172

    Elective projects 202

    End-of-period cash flows 134, 202, 611

    Engineering (definition of) 4

    Engineering design

    159

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    ANSWER TO SELECTED PROBLEMS

    Design (see Engineering design)

    Design to cost 110

    Design to price 108

    Developing cash flows 79

    Developing cost estimating relationships

    (CERs) 102

    Dimensionality 585

    Direct costs 28, 74

    Disbenefits 467, 477

    Discounted cash flow rate of return

    method 217 Discounted payback period

    230

    Discrete compounding 149

    Discrete random variables 500

    evaluation of projects with 503

    cost-driven optimization 45

    definition 9

    for the environment 45, 285

    process 9

    target costing 110

    value engineering 114

    Engineering economic analysis procedure

    8 Engineering economy

    definition 4

    and the design process 8 7

    interest rate to use 357

    origins of 5

    principles of 5-8

    Equity capital 71, 129, 552

    Equivalence 132,152

    case study 179

    terminology 139

    Equivalent uniform annual cost (EUAC)

    214,384 Equivalent worth methods 205-

    216, 253

    ERR method (see External rate of

    return) Essential projects 202, 250

    Esteem value 583

    Estimates

    accounting data (as a source) 89

    accuracy versus costs 89

    needed for typical g engineering

    economy study 87

    Exponential model (for estimating) 97

    External of return (ERR) method 227, 245-

    246, 269

    advantages over IRR method 228

    F

    Face value of bonds 209

    Factor technique (for

    estimating) 94 Feasible

    alternatives 10

    Financing

    with debt capital 551

    with equity capital 552

    installment 222

    160

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    ANSWER TO SELECTED PROBLEMS

    types of 88

    ways to accomplish 90

    Estimating,

    by analogy 90

    baseline 84

    bottom-up approach 80, 108, 116

    case study 116

    cash flows 79, 116

    comparison technique

    90

    components of an integrated approach

    82

    data (sources)

    89, 93 Delphi

    method 90 factor

    technique 94

    indexes 91

    learning and improvement 98

    parametric 96

    power-sizing technique 97

    product costs

    108 purpose 88

    ratio technique

    91 relationships

    96, 103 sellingprice 110

    spreadsheet example 100, 105, 109, 113

    target costing 110

    techniques (models)

    88, 91

    top-down approach 80, 110

    unit technique 93

    through leasing 564-567

    Fixed costs 24

    Future worth (FW) method 212,

    254 spreadsheet example 220,

    257, 618

    G

    Gains and losses on capital 327

    General Depreciation System (GDS) 311

    General economic environment 34

    General price inflation rate 353, 354

    calculation of 353

    Geometric sequences 143,163

    modeling price changes 372

    spreadsheet example 166, 617

    Gradients

    arithmetic (uniform) sequences 157, 28i,

    617 geometric sequences 163, 372, 617

    spreadsheet example 617

    Graphical sensitivity displays 431, 433,

    435, 438, 440,442

    Graphical breakeven point solutions 38, 43,

    341, 431,433

    Green engineering 45, 285

    Gross income 323

    H

    Hurdle rate 203, 231

    Hurwicz procedure 593

    161

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    ANSWER TO SELECTED PROBLEMS

    EUAC method (see Equivalent uniform

    annual cost)

    Exchange rates

    366 Excise taxes

    322

    Expected value 501

    Expected value of perfect information

    (EVPI) 531, 536

    Expenses (see Costs)

    Experience curve (see Learning curve)

    I

    Improvement (see Learning)Imputed market value 284

    In-lieu payments 468 Income statement

    71, 74 Income taxes 301, 321

    cash flow for 328

    corporate federal tax rates 324

    effect of, on average cost of capital

    322, 555 effective rate 325

    gains and losses 327 inflation's effect

    on 362 replacement studies 387, 400,

    410

    Inconsistent ranking problem 260

    Incremental analysis of alternatives 50

    benefit-cost method 483 case study

    285

    rate of return methods 262

    spreadsheet example 268, 485

    unequal lives 277, 283

    Incremental cash flow 249, 260, 263

    fundamental role 261 Incremental cost 25,

    57 Incremental revenue 25

    Independent investment opportunities

    /projects

    480,568

    compound 131,168

    definition 129

    factor relationships 149

    origins of 130 real rate 354

    simple 130

    Interest factors

    for continuous compounding 174

    for discrete compounding 150

    relationships 148

    Interest rate

    constant 206

    effective 168

    inflation-free 354

    nominal 168

    public projects 472

    real versus combined, definition 354

    risk adjusted 445

    risk-free 554 time varying 167

    Interest symbols 150,174

    162

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    ANSWER TO SELECTED PROBLEMS

    Indexes 91

    Indirect costs 28, 74

    Inflation (and price changes) 353

    analogy to foreign exchange rates 366

    case studies 371, 410 common errors

    357

    fixed and responsive annuities 360

    general price (inflation) 353, 354

    impact of general price inflation onafter-tax studies 362

    interest rate to use in engineering

    economy studies 357

    modeling with geometric cash flow

    sequences 372

    relationship between actual dollars and

    real dollars 355

    relationship between combined and real

    interest rates 358

    in replacement studies 410

    spreadsheet example 364, 413, 414

    terminology and basic concepts 354

    Installment financing 222

    Intangible property 303

    Interest

    combined (nominal) rate 354

    Interest tables

    continuous compounding 650

    discrete compounding 631

    Internal rate of return 217, 260, 332, 450,

    570 assumption 227

    common errors 265

    difficulties 227 modified 227

    multiple rates of return problem 227,

    244 selecting trial rates 219

    spreadsheet example 220, 221, 268,

    618

    Internal Revenue Service (IRS) 304

    Interpolation 219, 223

    Investment alternatives 248

    Investment classification 560

    Investment balance diagram 217, 223

    Investment cost 32

    IRR method (see Internal rate of return)

    J

    Joint probability 533-534

    L

    Labor costs 75

    Learning

    and improvement 98 Minimum attractive rate of return (MARK)

    202-204, 557-559

    163

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    ANSWER TO SELECTED PROBLEMS

    curve 98

    Leasing of assets 339, 383, 410, 564-567

    true lease v. conditional sale 565

    Lexicography 587 Liabilities 71

    tax 326

    Life

    of challenger 386, 390

    of defender 387, 393

    depreciable 305

    economic 384, 386, 387,400

    guideline periods 311

    ownership 384 physical 384

    useful 251, 274, 305, 384

    Life cycle 31, 87

    phases of 31-32

    relationship to design 32

    Life cycle cost 31, 412, 585

    Linear interpolation 219, 223

    Linear programming and capital allocation

    571-575

    Liquidity 229, 233

    Lives, different, repeatability v.

    coterminated assumptions 252, 274,

    396-397

    Loan repayment schemes 132

    Luxuries 35

    M

    Make versus purchase (studies) 57

    after-tax 322

    definition 202

    guidelines for 202-203

    opportunity cost principle 203, 558 risk

    adjusted 445, 557

    Modified ACRS 303,310

    flow diagram 315

    Modified B-C ratio 474-476

    Modified internal rate of return (MIRK) 227

    Monopoly 36

    Monte Carlo simulation 518

    spreadsheet example 522-524 Mortgages

    (see Installment financing) Multiple

    alternatives

    independent 480, 569

    mutually exclusive 247, 482, 569

    Multiple attributes, methods for considering

    582, 586,591

    Multiple internal rates of return 227,244

    Multiple objectives 7, 13, 582

    Multiple-purpose projects 468

    Mutually exclusive alternatives 247, 482,

    569 analysis of (see Comparison of

    alternatives) ranking errors 260, 482

    Mutually exclusive combinations 569

    N

    Necessities 35

    Net cash flow 13, 134, 248

    Net operating profit after taxes 341, 552

    164

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    ANSWER TO SELECTED PROBLEMS

    Manufacturing example of cost estimating

    109

    Manufacturing progress function (see

    Learning curve)

    Marginal cost 387, 390, 393, 401

    Marginal probability 533-534

    Market premium 555

    Market value 304,385-386

    Material selection 52

    Mathematical expectation 501

    Matheson formula 307

    Maximin and maximax rules 593-594

    Measures of economic worth 34

    Method of feasible ranges 586

    Method of least squares 104

    Net salvage value 305 Net worth 71

    Nominal Group Technique 12,115

    Nominal interest rate 168

    No compensatory models 586

    No dimensional scaling 591

    No monetary factors (attributes) 7, 13,

    415, 489,

    582

    case study 60, 587

    choice of 584

    selecting a measurement scale 585

    Nonrecurring costs 28

    Normal probability distribution 513, 515

    Notation 626

    O

    Objectives

    multiple 7,13, 582

    setting minimum return 202-204

    OBRA 321 Obsolescence 383 )

    Operation and maintenance costs 33

    Opportunity cost 30, 129

    in determination of interest rates 202-

    204, 472, 558

    in replacement analysis 385 Optimistic-

    pessimistic estimates 441

    Order of magnitude estimates 88

    Price index (see Indexes)

    Prime costs 76

    Principles of engineering economy 5-8

    Probabilistic risk analysis 499

    an application perspective 512

    Probabilities

    conditional 532

    joint 533-534

    marginal 533-534

    revised 532

    Probability functions 500

    Probability tree diagram 510

    165

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    ANSWER TO SELECTED PROBLEMS

    Ordinal ranking 589

    Ordinary annuity 149

    Outsider viewpoint 385-386, 387, 402

    Overhead costs 28, 74-75

    Overhead rate 75

    Ownership life 385

    P

    Parametric cost estimating 96

    Par value (of bonds) 209

    Payback (payout) period method

    discounted 230

    simple 229

    Perfect competition 36

    Perpetual series of uniform payments 211

    Personal property 303

    Perspective (viewpoint)

    in engineering economy studies 6, 84,

    137

    life cycle 45

    outsider 385

    public projects 467

    systems 10

    Physical life 384

    Planning horizon 202, 252

    Portfolios 553, 571

    Post evaluation (of results) 8, 14, 72, 563

    Postmortem project review 563

    Postponement (of investment) 395

    Power-sizing technique (for estimating) 97

    Problem solving, efficiency 10

    Producer goods (services) 34

    Producer Price Index 93, 353

    Profit 38-42, 53, 55, 71, 80, 110, 129,

    341, 540, 549 Profit and loss statement

    71

    Profitability 202, 217, 229, 233, 262, 321,

    327, 343, 570

    index 217

    Project (investment) portfolio 553, 571

    Project selection 559-563

    Projects

    dependence between pairs of 561

    elective 202 essential 202

    independent (comparisons among)

    480,

    569-571

    multiple-purpose 468

    public 465

    public versus privately owned 466

    Property

    depreciable 302, 387

    intangible 303 personal 303

    real 303

    tangible 303

    Property class 304, 310-311

    Property taxes 321 Public projects 465

    additional benefits v. reduced costs

    477,479

    benefit-cost ratio 473

    166

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    ANSWER TO SELECTED PROBLEMS

    Present economy studies 50

    case study 60

    Present worth (PW) method 205, 254, 331

    spreadsheet example 220, 257, 332,

    436, 618

    Price 34

    benefits 467 costs 467

    difficulties inherent in 470

    disbenefits 467, 477

    interest rate 472

    167