Richard de Neufville © Michael Benouaich Slide 1 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design Valuation with Simulation.

Slides:



Advertisements
Similar presentations
Chapter 15 – Arbitrage and Option Pricing Theory u Arbitrage pricing theory is an alternate to CAPM u Option pricing theory applies to pricing of contingent.
Advertisements

Engineering Systems Analysis for Design Richard de Neufville © Massachusetts Institute of Technology Discounted Cash Flow Slide 1 of 16 Discounted Cash.
Desktop Business Analytics -- Decision Intelligence l Time Series Forecasting l Risk Analysis l Optimization.
Engineering Systems Analysis for Design Richard de Neufville © Massachusetts Institute of Technology Asphalt vs. Concrete Example Slide 1 of 18 Asphalt.
Real Options: The Via Dutra Case Luiz Brandao The University of Texas at Austin Class Web Site
FIN 453: Cases In Strategic Corporate Finance 1 REAL OPTIONS OLD FASHION IDEAS FOR NEW METHODOLIGIES IN CAPITAL BUDGETING.
FINA 522: Project Finance and Risk Analysis Lecture 12 Updated: 19 May 2007.
Chapter 12 Risk Topics and Real Options in Capital Budgeting and Cash Flow Estimation.
Engineering Systems Analysis Richard de Neufville © Massachusetts Institute of Technology Economic Evaluation Slide 1 of 22 Economic Evaluation l Objective.
Chapter 10 Project Analysis
Engineering Economic Analysis Canadian Edition
Luiz Eduardo Teixeira Brandão PUC-Rio Davis Machado da Silva Teixeira Embratel S.A. B ID P RICE D ETERMINATION IN A T ELECOM A UCTION.
Forecasting Future Annual Net Cash Flows 1.Definition of net cash flows 2.Projecting future values 3.Measurement of business risk 4.Risk/return preferences.
CHAPTER 13 Measurement of Interest-Rate Risk for ALM What is in this Chapter? INTRODUCTION RATE-SHIFT SCENARIOS SIMULATION METHODS.
© K. Cuthbertson and D. Nitzsche Figures for Chapter 19 REAL OPTIONS (Financial Engineering : Derivatives and Risk Management)
Contemporary Engineering Economics, 4 th edition, © 2007 Risk Simulation Lecture No. 49 Chapter 12 Contemporary Engineering Economics Copyright, © 2006.
Improving the versatility of D.C.F. models by simple computer applications Dr. LI Ling Hin Associate Professor Dept. of Real Estate and Construction The.
Improving the versatility of D.C.F. models by simple computer applications U seful references : 1) Glenn Kautt and Fred Wieland “Modeling the future: The.
1 Real Options Analysis Office Tower Building Portfolio Presentation Fall 2008 ESD.71 Professor: Richard de Neufville Presented by: Charbel Rizk.
Concession Length and Investment Timing Flexibility Chiara D’Alpaos, Cesare Dosi and Michele Moretto.
Engineering Systems Analysis Richard de Neufville © Massachusetts Institute of Technology Economic Evaluation Slide 1 of 22 Economic Evaluation l Objective.
Opportunity Engineering Harry Larsen The Boeing Company SCEA 2000 Conference.
Engineering Systems Analysis for Design Richard de Neufville  Massachusetts Institute of Technology Use of Simulation Slide 1 of 19 Use of Simulation.
Value of Flexibility an introduction using a spreadsheet analysis of a multi-story parking garage Tao Wang and Richard de Neufville.
Example 12.6 A Financial Planning Model | 12.2 | 12.3 | 12.4 | 12.5 | 12.7 |12.8 | 12.9 | | | | | | |
Chapter McGraw-Hill Ryerson © 2013 McGraw-Hill Ryerson Limited Project Analysis and Evaluation Prepared by Anne Inglis 11.
F. Peter Boer June, 2007 Risk-adjusted Valuation for R&D Projects.
Practical analysis and valuation of heterogeneous telecom services Case-based analysis.
Identification and Quantification of Incremental Market Risk By Sy Sarkarat Ph. D.* * Dr. Sarkarat is professor of economics at WVU-Parkersburg, his research.
© 2003 The McGraw-Hill Companies, Inc. All rights reserved. Project Analysis and Evaluation Chapter Eleven Prepared by Anne Inglis, Ryerson University.
December 9, 2008 ESD.71 Engineering Systems Analysis for Design Term Project-- Real Option Analysis of Cape Wind Project in Massachusetts Prof. Richard.
Chapter 10 Principles of Corporate Finance Eighth Edition A Project is Not A Black Box Slides by Matthew Will Copyright © 2006 by The McGraw-Hill Companies,
CORPORATE FINANCE III ESCP-EAP - European Executive MBA 24 Nov a.m. London Project Appraisal-Dealing with uncertainty I. Ertürk Senior Fellow in.
Engineering Economic Analysis Canadian Edition
Contemporary Engineering Economics, 6 th edition Park Copyright © 2016 by Pearson Education, Inc. All Rights Reserved Estimating Project Volatility Lecture.
Slide 1 Flexibility for in-Space Propulsion Technology Investment Jonathan Battat ESD.71 Engineering Systems Analysis for Design Application Portfolio.
1 Chapter 7 Applying Simulation to Decision Problems.
11 0 Project Analysis and Evaluation. 1 Key Concepts and Skills  Understand forecasting risk and sources of value  Understand and be able to do scenario.
Engineering Systems Analysis for Design Richard de Neufville © Massachusetts Institute of Technology Engineering Economy Slide 1 of 13 Present Value, Discounted.
Engineering Systems Analysis for Design Massachusetts Institute of Technology Richard de Neufville © Hybrid Approach to Valuation Slide 1 of 24 Hybrid.
Evaluating Natural Resource Investments: A Dynamic Option Simulation Approach Chung-Gee Lin Dept. of Business Mathematics Soochow University, Taiwan 2004.
A Cursory Introduction to Real Options Andrew Brown 5/2/02.
18 Autumn in Colorado. Economic Evaluation and Sensitivity-Risk Analysis of Zarshuran Gold Mine Project Authors: Kazem Oraee; University of Stirling,
ESD.70J Engineering Economy Module - Session 21 ESD.70J Engineering Economy Fall 2009 Session Two Michel-Alexandre Cardin – Prof. Richard.
Catalog of Operating Plans: The Quest for the Best ESD.71 Lecture Michel-Alexandre Cardin, PhD Candidate Engineering Systems Division December
FIN 614: Financial Management Larry Schrenk, Instructor.
Engineering Systems Analysis for Design Massachusetts Institute of Technology Richard de Neufville  Real Options SDMSlide 1 of 31 Richard de Neufville.
© Copyright 2004, Alan Marshall1 Real Options in Capital Budgeting.
Engineering Systems Analysis for Design Richard de Neufville  Massachusetts Institute of Technology Use of Simulation Slide 1 of 17 Use of Simulation.
Real Options Thinking IOM580 Hiroshi Ochiumi 1. Traditional NPV Analysis Discounts future cash flows to their present value. In 1970, 57% of large corporations.
Engineering Systems Analysis for Design Richard de Neufville © Massachusetts Institute of Technology Engineering Economy Slide 1 of 14 Present Value, Discounted.
Chapter 11 Principles PrinciplesofCorporateFinance Ninth Edition Project Analysis Slides by Matthew Will Copyright © 2008 by The McGraw-Hill Companies,
10 Project analysis McGraw-Hill/Irwin
Flexibility and Design Options Analysis of a Streetcar System in Madison, WI Paul Grogan ESD.71 Application Portfolio Massachusetts Institute of Technology.
Lecture 03.0 Project analysis Copyright © 2006 by The McGraw-Hill Companies, Inc. All rights reserved McGraw-Hill/Irwin.
ESD.70J Engineering Economy Module - Session 21 ESD.70J Engineering Economy Fall 2010 Session Two Xin Zhang – Prof. Richard de Neufville.
Contemporary Engineering Economics
Engineering Systems Analysis for Design Massachusetts Institute of Technology Richard de Neufville © Decision Analysis Basics Slide 1 of 21 Calculations.
Using Discounted Cash Flow Analysis to Make Investment Decisions Project Analysis By : Else Fernanda, SE.Ak., M.Sc. ICFI.
Engineering Systems Analysis for Design Richard de Neufville  Massachusetts Institute of Technology Review for Mid-termSlide 1 of 14 Review of 1st half.
Engineering Systems Analysis for Design Richard de Neufville  Massachusetts Institute of Technology Screening Models Slide 1 of 21 Screening Models Richard.
Richard de Neufville © Michael Benouaich Slide 1 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design Valuation with Simulation.
Integrated Method for Designing Valuable Flexibility In Systems Case Example: Oil Development Project Abisoye Babajide Richard de Neufville Michel-Alexandre.
Risk and Managerial (Real) Options in Capital Budgeting
DSM financial cost and modelling
Key Concepts and Skills
Monte Carlo Simulation
Abisoye Babajide Richard de Neufville Michel-Alexandre Cardin
Presentation transcript:

Richard de Neufville © Michael Benouaich Slide 1 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design Valuation with Simulation of Options “on” and “in” a System Capital Investment and Engineering Flexibility in the development of the Antamina mine (Peru)

Richard de Neufville © Michael Benouaich Slide 2 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design This presentation is based on the case developed by Peter Tufano and Alberto Moel from the Harvard Business School. It contains simplifications. The figures appearing here differ from those presented by Tufano and Moel. They reflect the assumptions of the authors of this presentation about the treatment of uncertainty and the cash flows projection. Note

Richard de Neufville © Michael Benouaich Slide 3 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design Project Description: Antamina  State-owned copper and zinc mine in Peru, ~480km (300miles) north of Lima  Privatization in 1996: call for bids. Small upfront payment + promise to develop  Little reliable geological information  Geological study to take two years, start after the bidding, be available before construction  Proceed with development if survey suggested the mine could be developed economically

Richard de Neufville © Michael Benouaich Slide 4 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design Project Time Line Bid & Win Explore (years 0-2) Develop: CapX (years 2-5) Produce Metal (year 5-closure ) Close mine Walk away Year 2

Richard de Neufville © Michael Benouaich Slide 5 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design Sources of Uncertainty Revenues  Mine’s life  Future prices of zinc and copper  Quantity of ore Costs  Operation expenses  Capital Expenditures Uncertainty treatment  Deterministic  Stochastic process (Lattice, Years 0-2)  Probability distributions Monte Carlo simulation

Richard de Neufville © Michael Benouaich Slide 6 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design Monte Carlo Simulation 1. Probability values for significant factors 2. Random selection of factors according to their pdf 3. Determine NPV for each combination 4. Repeat process and obtain NPV distribution

Richard de Neufville © Michael Benouaich Slide 7 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design Sources of Uncertainty  Price and quantity uncertainty prevails only during the first two years  Price risk is assumed to be eliminated in year 2 by entering forward contracts to sell the output of the mine  All other sources of uncertainty are modeled in the Monte Carlo simulation after year 2 Simulation result: Realization of expected NPV

Richard de Neufville © Michael Benouaich Slide 8 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design Results: Base Case – No Options Mean = $550 M

Richard de Neufville © Michael Benouaich Slide 9 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design Simulation Results: Option to Abandon Mean = $819

Richard de Neufville © Michael Benouaich Slide 10 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design Valuation: Option to Abandon Option to abandon: $819 - $550 = $269 million

Richard de Neufville © Michael Benouaich Slide 11 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design  Add flexibility, add value?  Starting engineering study earlier and faster would allow you to shorten construction to two years and ramp up production faster What would you pay for this option? Engineering Flexibility

Richard de Neufville © Michael Benouaich Slide 12 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design Simulation Results: Early Development Mean = $567

Richard de Neufville © Michael Benouaich Slide 13 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design Valuation: Option for Early Development Early Development Option (alone): $567 - $550 = $17 million Would easily justify several million $ spent early on design work This real option would in fact be compounded with the option to abandon Generally not additive!

Richard de Neufville © Michael Benouaich Slide 14 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design Simulation Results: Both Options Mean = $836

Richard de Neufville © Michael Benouaich Slide 15 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design Valuation: Both Options Together Value of both Options together: $ 836- $550 = $286 million Incremental Value of Early Development Option : $ 836- $819 = $17 million Appears additive, but actually a difference. In this case rounded out and insignificant

Richard de Neufville © Michael Benouaich Slide 16 of 16 Massachusetts Institute of Technology Engineering System Analysis for Design References  Tufano, P., Moel, A., (1997) “Bidding for Antamina”, Harvard Business School Case number , Rev. Sept. 15.  Tufano, P., Moel, A., (2000) “Bidding for the Antamina Mine – Valuation and Incentives in a Real Option Context”, in “Project Flexibility, Agency, and Competition,” edited by Brennan, M. and Trigeorgis, L., Oxford University Press  Hertz, D. (1979) “Risk Analysis in Capital Investment”, Harvard Business Review September-October, pp