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, 2011 No. of Slides:20

Payam Hanafizadeh , PhD Department of Industrial Management, School of Management and Accountancy, Allameh Tabataba'i University, Tehran, Iran Email: hanafizadeh@gmail.com URL: www.hanafizadeh.com. Volume 54,Number 1-2.July 2011 Mathematical and Computer Modelling 54(2011)233-242.

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, 2011 No. of Slides:20

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  1. PayamHanafizadeh, PhD Department of Industrial Management, School of Management and Accountancy, AllamehTabataba'i University, Tehran, Iran Email: hanafizadeh@gmail.com URL: www.hanafizadeh.com Volume 54,Number 1-2.July 2011 Mathematical and Computer Modelling 54(2011)233-242 Robust Net Present Value , 2011 No. of Slides:20

  2. Agenda Abstract Introduction Literature review Robust net present value Robust net present value analysis Simulation of the robust net present value Discussion Conclusion

  3. Abstract • Historical data • Investor's characteristics • risk-taking • risk-aversion -New approach to computing Net Present Value (NPV). • high significance in analyzing the sensitivity • The model is highly reliable • Variance • Correlation -Define a closed and convex region for the changes of the uncertain parameters. -Determine the size and shape of the uncertainty region. -Present the mathematical formulation for computing the robust NPV.

  4. Introduction Variance Correlation One of the most important and frequent managerial decision is to evaluate the attractiveness of the investment projects. uncertainty region • It is of paramount importance to use precise data in calculating NPV, because the feasibility of a project may change by fluctuation of data. NPV One project Two or more projects Highest ROR MARR ≤ ROR

  5. Literature review dealing with uncertainty

  6. Robust net present value an-1 an a1 a2 The standard equation to calculate NPV : -c0 0 1 2 n-1 n F Robust Net Present Value : a1 a2 Region U μa

  7. Robust net present value • Uncertain region : W is an n×n symmetric positive definite matrix:

  8. RNPV For each arbitrary x, we have inf(x) = -sup (-x), therefore : According to norm function properties we have:

  9. RNPV Based on the definition of the dual norm • = • , and we can write

  10. Robust net present value analysis The robust NPVformulation always obtains an NPV which is smaller than NPV. U(2,3) RROR ROR - c i = ∞ i

  11. impressive elements that affect difference between NPV and RNPV choosing a greaterqleads to a greater uncertainty region. and Proposition 1 : A greater uncertainty region obtains a smaller RNPV.

  12. impressive elements that affect difference between NPV and RNPV

  13. impressive elements that affect difference between NPV and RNPV The bigger the radius of uncertainty region, the less the amount of RNPV will be.

  14. impressive elements that affect difference between NPV and RNPV Considering a greater covariance matrix leads to a smaller RNPV.

  15. Simulation of the robust net present value n = 4 r = 2 q = 2 ROR = 25.31% RROR = 14.23%

  16. Simulation of the robust net present value A : C : both approaches will suggest the investor not accept the project • B :

  17. Discussion • Positive skewness • The number of scenarios, whose ROR is less • than the mean value is more than 50%. • Negative skewness • The number of scenarios, whose ROR is less • than the mean value is less than 50%.

  18. Conclusion • The robust approach was presented to how we deal with random and dependent net income of a cash flow. • A smaller robust NPV is acquired as the uncertainty region gets bigger and bigger. • The simulation indicates that the robust approach is more reliable than the traditional NPV

  19. References [1] R. Stone, Management of Engineering Projects, Macmillan Education, London, 1988. [2] E. Jonathan Jr., Ingersoll, Theory of Financial Decision Making, Yale University press, New Haven, 1987. [3] M.J. Sobel, J.G. Szmerekovsky, V. Tilson, Scheduling projects with stochastic activity duration to maximize expected net present value, European Journal of Operational Research 198 (2009) 697–705. [4] S.A. Ross, Uses, abuses, and alternatives to the net-present-value rule, Financial Management 24 (3) (1995) 96–102. [5] E. Berkovitch, R. Israel, Why the NPV criterion does not maximize NPV, The Review of Financial Studies 17 (1) (2004) 239–255. [6] C.A. Magni, Investment decisions in the theory of finance: some antinomies and inconsistencies, European Journal of Operational Research 137 (2002)206-217 [7] B.D. Reyck, On investment decision in the theory of finance: some antinomies and inconsistencies, European Journal of Operational Research 161-(2005)499-504 [8] P. Hanafizadeh, A. Seifi, A unified model for robust optimization of linear programs with uncertain parameters, Transactions on Operational Research(2004)20-45 [9] P. Jovanovic, Application of sensitivity analysis in investment project evaluation under uncertainty and risk, International Journal of Project Management 17 (1999) 217–222. [10] J.H. Willem, V. Groenendaal, Estimating NPV variability for deterministic models, European Journal of Operational Research 107 (1998) 202–213. [11] C. Xu, G.Z. Gertner, Uncertainty and sensitivity analysis for models with correlated parameters, Computational Statistics and Data Analysis 51 (2007).5579-5590 [12] P. Hanafizadeh, A. Kazazi, A. JaliliBolhasani, Portfolio design for investment companies through scenario planning, Management Decision 49 (4).(2011) [13] D. Bertsimas, D. Pachamanova, M. Sim, Robust linear optimization under general norms, Opeations Research Letters 32 (2004) 510–516. [14] E.R. Coates, M.E. Kuhl, Using simulation software to solve engineering economy problems, Computers and Industrial Engineering 45 (2003) 285–294. [15] A.K. Dixit, R.S. Pindyck, Investment Under Uncertainty, Princeton University Press, Princeton, 1994. [16] T.T. Lin, Applying the maximum NPV rule with discounted/growth factors to a flexible production scale model, European Journal of Operational Research 196 (2009) 628–634. [17] B.D. Reyck, Z. Degraeve, R. Vandenborre, Project options valuation with net present value and decision tree analysis, European Journal of Operational Research 184 (2008) 341–355.

  20. References [18] R. Campbell, F. Harvey, School of Business, Duke university, NC, National Bureau of economic research, Cambridge, MA, December, 1999. [19] A. Keswani, M.B. Shackleton, How real option disinvestment flexibility augments project NPV, European Journal of Operational Research 168 (2006) .240-252 [20] R.G. Dimitrakopoulos, A. Sabry, A. Sabour, Evaluating mine plans under uncertainty: can the real options make a difference?, Resources Policy 32.(2007)116-125 [21] P.L. Kunsch, A. Ruttiens, A. Chevalier, A methodology using option pricing to determine a suitable discount rate in environmental management,European Journal of Operational Research 185 (2008) 674–679. [22] M. Samis, G. Davis, D. Laughton, R. Poulin, Valuing uncertain asset cash flows when there are no options: a real option approach, Resources Policy 30 (2006)285-298 [23] E. Borgonovo, L. Peccati, Uncertainty and global sensitivity analysis in the evaluation of investment projects, International Journal of Production Economics 104 (2006) 62–73. [24] P. Hanafizadeh, A. Seifi, Tuning the unified robust model of uncertain linear programs, IUST International Journal of Engineering Science 17 (2006)-49-54 [25] E. Borgonovo, L. Peccati, Sensitivity analysis in investment project evaluation, International Journal of Production Economics 90 (2004) 17–25. [26] T.G. Eschenbach, R.J. Gimple, Stochastic sensitivity analysis, The Engineering Economist 35 (4) (1990) 305–321. [27] C.S. Park, Contemporary Engineering Economics, 2nd ed., Addison-Wesly, Menlo Park, CA, 1997. [28] N. Bourbaki, Topological vector spaces, in: Elements of Mathematics, Springer, New York, 1987, Chapters 1–5. [29] S. Boyd, L. Vandenberghe, Convex Optimization, Cambridge University Press, Cambridge, 2004. [30] P. Hanafizadeh, A. Seifi, k. Ponnambalam, Primal and dual robust counterparts of uncertain linear programs: an application to portfolio selection, Journal of Industrial Engineering International 2 (1) (2006) 38–52. [31] A. Damodaran, Investment Valuation: Tools and Techniques for Determining the Value of Any Asset, 2nd ed., John Wiley and Sons, Hoboken, 2002.

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