1) The document discusses economic value added (EVA) and how it is calculated as net profit after tax minus the cost of invested capital.
2) EVA indicates the excess contribution to net profit after removing the minimum required return. It is useful for evaluating investment projects.
3) The document provides an example calculation of EVA and cash flow analysis for a project over 4 years to demonstrate how the analyses are economically equivalent. Both show the project is not justified at the 12% after-tax hurdle rate.
The document discusses cost estimation and depletion. It begins by outlining a case study where student teams will evaluate an after-tax business expansion problem from a textbook. The document then defines relevant terms for projects using both debt and equity financing. It explains two methods for calculating depletion: cost depletion based on usage and percentage depletion which applies a constant percentage of gross income. It provides examples of applying both cost and percentage depletion calculations. The document concludes by noting current tax law allows taking the larger of cost or percentage depletion deductions each year.
1. Breakeven analysis determines the level of a variable (e.g. quantity, units) that results in no profit or loss. It is used to evaluate a single project or choose between two alternatives.
2. Payback period is the estimated time for a project's cash inflows to recover its initial investment. It can be calculated with or without considering the time value of money (discounted vs no-return payback).
3. Both breakeven analysis and payback period are useful initial screening tools but should not be the sole basis for a decision, as they do not consider cash flows or returns after the payback period. More comprehensive methods like net present worth are generally preferred.
This document summarizes key concepts in engineering economy analysis including:
1. Present worth analysis which converts cash flows to present value using a discount rate to evaluate alternatives of equal or different lifetimes.
2. Alternatives can be mutually exclusive, competing directly, or independent projects that are evaluated separately.
3. Equal service lifetimes are achieved by using the least common multiple of lifetimes or a specified study period.
4. Future worth analysis follows the same process as present worth but calculates future rather than present values.
5. Capitalized cost analysis treats projects as having infinite lifetimes by calculating the perpetual equivalent uniform annual cash flow.
Lecture # 4 gradients factors and nominal and effective interest ratesBich Lien Pham
This document discusses gradients, which are cash flows that change by a regular pattern. It covers arithmetic gradients, where the cash flow increases or decreases by a constant amount each period, and geometric gradients, where the cash flow changes by a constant percentage each period. It also discusses shifted gradients, where the present value point is not at time 0, and how to calculate present values for these types of cash flows using factors or the NPV function in Excel.
The document provides an executive summary of Chapter 10 from a textbook on engineering economy. It covers several key topics from the chapter, including different evaluation methods for comparing alternatives, determining the minimum attractive rate of return (MARR), accounting for debt and equity in the weighted average cost of capital (WACC), and methods for multi-attribute decision analysis. The summary highlights the importance of selecting the appropriate evaluation method based on problem characteristics, and calculating the MARR and WACC to evaluate investment opportunities.
Direct and indirect costs must be estimated for engineering projects. Common direct cost estimation techniques include the unit method, cost indexes, and cost-estimating relationships. Indirect costs can comprise 25-50% of total costs and are traditionally allocated using predetermined rates. Activity-based costing is a more accurate method that uses cost drivers to allocate indirect costs to cost centers. Ethical practices, like avoiding deception, are important for creating unbiased cost estimates.
Chapter 1 foundations of engineering economyBich Lien Pham
This document contains lecture slides about the foundations of engineering economy. It discusses key concepts like time value of money, cash flows, economic equivalence, interest rates, minimum attractive rate of return, and opportunity cost. The slides provide examples and definitions to explain these important economic principles that engineers must understand to make sound financial decisions when evaluating project alternatives.
The document discusses cost estimation and depletion. It begins by outlining a case study where student teams will evaluate an after-tax business expansion problem from a textbook. The document then defines relevant terms for projects using both debt and equity financing. It explains two methods for calculating depletion: cost depletion based on usage and percentage depletion which applies a constant percentage of gross income. It provides examples of applying both cost and percentage depletion calculations. The document concludes by noting current tax law allows taking the larger of cost or percentage depletion deductions each year.
1. Breakeven analysis determines the level of a variable (e.g. quantity, units) that results in no profit or loss. It is used to evaluate a single project or choose between two alternatives.
2. Payback period is the estimated time for a project's cash inflows to recover its initial investment. It can be calculated with or without considering the time value of money (discounted vs no-return payback).
3. Both breakeven analysis and payback period are useful initial screening tools but should not be the sole basis for a decision, as they do not consider cash flows or returns after the payback period. More comprehensive methods like net present worth are generally preferred.
This document summarizes key concepts in engineering economy analysis including:
1. Present worth analysis which converts cash flows to present value using a discount rate to evaluate alternatives of equal or different lifetimes.
2. Alternatives can be mutually exclusive, competing directly, or independent projects that are evaluated separately.
3. Equal service lifetimes are achieved by using the least common multiple of lifetimes or a specified study period.
4. Future worth analysis follows the same process as present worth but calculates future rather than present values.
5. Capitalized cost analysis treats projects as having infinite lifetimes by calculating the perpetual equivalent uniform annual cash flow.
Lecture # 4 gradients factors and nominal and effective interest ratesBich Lien Pham
This document discusses gradients, which are cash flows that change by a regular pattern. It covers arithmetic gradients, where the cash flow increases or decreases by a constant amount each period, and geometric gradients, where the cash flow changes by a constant percentage each period. It also discusses shifted gradients, where the present value point is not at time 0, and how to calculate present values for these types of cash flows using factors or the NPV function in Excel.
The document provides an executive summary of Chapter 10 from a textbook on engineering economy. It covers several key topics from the chapter, including different evaluation methods for comparing alternatives, determining the minimum attractive rate of return (MARR), accounting for debt and equity in the weighted average cost of capital (WACC), and methods for multi-attribute decision analysis. The summary highlights the importance of selecting the appropriate evaluation method based on problem characteristics, and calculating the MARR and WACC to evaluate investment opportunities.
Direct and indirect costs must be estimated for engineering projects. Common direct cost estimation techniques include the unit method, cost indexes, and cost-estimating relationships. Indirect costs can comprise 25-50% of total costs and are traditionally allocated using predetermined rates. Activity-based costing is a more accurate method that uses cost drivers to allocate indirect costs to cost centers. Ethical practices, like avoiding deception, are important for creating unbiased cost estimates.
Chapter 1 foundations of engineering economyBich Lien Pham
This document contains lecture slides about the foundations of engineering economy. It discusses key concepts like time value of money, cash flows, economic equivalence, interest rates, minimum attractive rate of return, and opportunity cost. The slides provide examples and definitions to explain these important economic principles that engineers must understand to make sound financial decisions when evaluating project alternatives.
1. The document discusses the time value of money concept in engineering economy and introduces related terminology and formulas.
2. Key points covered include equivalence of money over time with interest, definitions of interest rate and rate of return, and explanations of simple and compound interest.
3. Standard notation for interest factors is presented, including the general form of (X/Y,i%,n) to represent various interest factors. Cash flow diagrams and the symbols P, F, and A are also explained.
This document discusses capital budgeting for independent projects with budget limitations. It covers calculating the present worth (PW) of mutually exclusive bundles of projects to maximize return within a budget. For large numbers of projects, a linear programming model is presented to maximize PW. Different measures for ranking projects are discussed, including PW, internal rate of return, and present worth index, which may select different projects as each maximizes a different parameter.
The document discusses benefit-cost analysis for public sector projects. It covers calculating benefit-cost ratios for single and multiple alternatives, using cost-effectiveness analysis for service sector projects, and some key differences between public and private projects like size, life, funding sources, and selection criteria. Ethical considerations are also prevalent in public policy and planning where engineers are involved.
The document discusses various methods for depreciating assets and depleting natural resources over time. It defines key terms, outlines learning outcomes, and provides examples of calculating depreciation using straight line, declining balance, double declining balance, and MACRS methods. It also covers cost depletion and percentage depletion methods for natural resources.
This document discusses replacement studies and key concepts:
1. A replacement study determines whether to replace an existing asset (defender) or keep it by comparing the annual worth (AW) of the defender to potential replacement assets (challengers).
2. The economic service life is the number of years an asset can be kept until its AW is lowest.
3. A replacement study either considers an unlimited time horizon or a specified study period. Over unlimited time, the defender is kept until its economic service life and then replaced. Within a specified period, all combinations are considered.
4. The replacement value is the defender's market value that equalizes its AW with a challenger, helping determine if the challenger
This document discusses techniques for analyzing cash flows that involve shifting, combining factors, and gradients. It provides examples of how to calculate present and future values for shifted uniform series, series with single cash flows, and both positive and negative arithmetic and geometric gradients. The key steps involve renumbering cash flows to determine the applicable time periods, then using the appropriate present worth, future worth, or gradient factors and equations.
Chapter 2 factors, effect of time & interest on moneyBich Lien Pham
This document discusses factors related to time and interest rates that affect money. It covers single payment factors, uniform series factors, arithmetic and geometric gradients, and methods for finding unknown interest rates or time periods. Key learning outcomes include single payment, uniform series, and gradient factors as well as techniques for determining factor values for untabulated rates or periods. Examples are provided to illustrate concepts such as single payments, uniform series, arithmetic gradients, and finding unknown rates or time periods.
Annual worth (AW) analysis allows engineers to evaluate project alternatives over multiple life cycles by converting all cash flows to equivalent uniform annual amounts at a discount rate. Key aspects of AW analysis include calculating the capital recovery rate to determine the equivalent annual cost of initial investments, and summing equivalent annual cash flows for operating, maintenance, and replacement costs over the life of each alternative. Life-cycle cost analysis takes a broader perspective by considering all costs from project inception through disposal or replacement.
Lecture # 3 compounding factors effects of inflationBich Lien Pham
This document summarizes key concepts for determining unknown interest rates, inflation rates, and numbers of periods in engineering economy problems. It discusses using the IRR, RATE, and NPER functions in Excel to calculate unknown values. It also covers handling varying interest rates over time through period-by-period analysis or approximation using an average rate. The effects of inflation are explained, including how future costs are estimated using an inflation rate. Common inflation measures like the Consumer Price Index are also introduced.
Chapter 8 ror analysis for multiple alternativesBich Lien Pham
This document discusses rate of return analysis for multiple project alternatives. It explains that incremental analysis is required to select the alternative with the highest overall rate of return. The key steps are: (1) calculate incremental cash flows between alternatives; (2) use these cash flows to calculate the incremental internal rate of return, ∆i*; (3) eliminate alternatives where ∆i* is less than the minimum acceptable rate of return; (4) repeat for remaining alternatives until one alternative remains. This process ensures the alternative with the highest overall rate of return is selected. Examples are provided to demonstrate calculating incremental cash flows and ∆i* to determine the best alternative.
Chapter 7 ror analysis for a single alternativeBich Lien Pham
1. The document discusses methods for calculating rate of return (ROR) for projects and investments, including dealing with multiple ROR values and calculating external ROR.
2. ROR is the interest rate that makes the net present value of a project's cash flows equal to zero. Multiple ROR values can exist if the cash flows change sign more than once.
3. External ROR removes the assumption that positive cash flows are reinvested at the project's ROR by considering external borrowing and investment rates. It can be calculated using the modified internal rate of return or return on invested capital approaches.
This document discusses nominal and effective interest rates. It begins by defining key terms like nominal rate, effective rate, compounding period, and payment period. It then explains how to convert between nominal and effective rates for different compounding frequencies. The document provides examples of calculating future values for single payments and series of payments when the payment period is greater than or less than the compounding period. It also covers calculations for continuous compounding and situations when interest rates vary over time.
This document is a slide set on after-tax economic analysis that was developed by Dr. Don Smith of Texas A&M University. It covers key topics related to after-tax cash flows and economic evaluation including terminology, taxes, depreciation, replacement analysis, and international tax considerations. The learning objectives are to understand after-tax concepts and how to incorporate taxes into economic analysis using spreadsheets. Examples are provided to illustrate after-tax calculations and how the results can differ from before-tax analysis.
1. Breakeven analysis determines the level of a variable (e.g. quantity, units) that results in no profit or loss. It is used to evaluate a single project or choose between two alternatives.
2. Payback period is the estimated time required for cash inflows from a project to recover its initial investment. It can be calculated with or without considering the time value of money (discounted vs no-return payback).
3. Both breakeven analysis and payback period are useful initial screening tools but should not be used as the sole criteria for accepting or rejecting projects, as they do not consider cash flows or returns after the payback period. More comprehensive analyses like net present value are
This document provides an overview of techniques for formalized sensitivity analysis and expected value decisions. It discusses determining sensitivity to parameter variation, using three estimates to analyze sensitivity, calculating expected values of cash flows and alternatives, and using decision trees to model staged evaluations under uncertainty. The techniques aim to account for variability in parameters, quantify uncertainty through probabilities, and identify best decisions considering risk.
1. The document discusses the time value of money concept in engineering economy. It defines key terms like interest rate, present value, future value, simple interest, and compound interest.
2. Various interest factors like single payment compound amount, uniform series present worth, capital recovery, and sinking fund are introduced. Formulas and cash flow diagrams are provided for calculating these factors.
3. Microsoft Excel functions that can be used to compute time value of money calculations are also presented.
This document discusses methods for estimating capital and product costs. It describes capital costs as including fixed costs like manufacturing equipment, non-manufacturing indirect costs, and working capital. Product costs include variable manufacturing costs, fixed costs, overhead, general expenses, and distribution/marketing. The document outlines several methods for estimating capital costs, including using percentage of equipment costs, capacity factors to account for scale, and inflation indexes to adjust for time. Accuracy of estimates ranges from +/- 5% for detailed to +/- 40% for order-of-magnitude.
The document discusses various measures used to evaluate the profitability of projects, including return on investment (ROI), payback period (PBP), net present worth or value (NPV), and discounted cash flow rate of return (DCFRR). It provides definitions and examples of calculating each measure. ROI is defined as average annual profit divided by total capital investment. PBP is the time for cumulative cash flows to recover the fixed capital investment. NPV considers the time value of money by taking the present value of all after-tax cash flows. DCFRR is the interest rate that results in an NPV of 0.
The document outlines the key topics that will be covered in a lecture on chemical process economics, including the foundations of engineering economy, analysis of costs and profitability, optimization techniques, decision-making under risk and uncertainty, and the importance of ethics in decision-making. The lecture will teach students the fundamentals, methods, and full process of evaluating engineering projects and determining the best choice among alternatives.
This document provides an executive summary and learning objectives for a chapter on decision making under risk and uncertainty. It introduces key concepts like risk, uncertainty, random variables, probability distributions, expected value, standard deviation, and Monte Carlo simulation. These concepts are illustrated through examples of decision making problems that involve random variables and estimating outcomes through sampling from probability distributions.
This document discusses investment alternatives and methods for evaluating them, including present worth (PW) and annual worth (AW). It covers the following key points:
- There are four types of investment alternatives: mutually exclusive set, independent set, single project, and "do nothing" option.
- PW and AW can both be used to evaluate alternatives, with PW preferred for revenue projects and AW for cost projects.
- When alternatives have different lives, the lowest common multiple approach is used to evaluate them over the same period for comparison.
- Examples are provided to illustrate how to calculate PW and AW for alternatives and choose the most favorable option based on these measures.
Lecture # 4 gradients factors and nominal and effective interest ratesBich Lien Pham
This document discusses gradient factors and shifted gradients. Gradients are cash flows that increase or decrease by a regular pattern. Gradient factors are used to calculate equivalent present worth, annual worth, and future worth for gradient cash flow series. The document covers arithmetic gradients, which increase or decrease by a constant amount each period, and geometric gradients, which increase or decrease by a constant percentage each period. It also discusses how to handle gradients when the present worth point is not at time zero, known as shifted gradients. Formulas and spreadsheet functions like NPV are presented for calculating present worth for various gradient types and shifted scenarios.
1. The document discusses the time value of money concept in engineering economy and introduces related terminology and formulas.
2. Key points covered include equivalence of money over time with interest, definitions of interest rate and rate of return, and explanations of simple and compound interest.
3. Standard notation for interest factors is presented, including the general form of (X/Y,i%,n) to represent various interest factors. Cash flow diagrams and the symbols P, F, and A are also explained.
This document discusses capital budgeting for independent projects with budget limitations. It covers calculating the present worth (PW) of mutually exclusive bundles of projects to maximize return within a budget. For large numbers of projects, a linear programming model is presented to maximize PW. Different measures for ranking projects are discussed, including PW, internal rate of return, and present worth index, which may select different projects as each maximizes a different parameter.
The document discusses benefit-cost analysis for public sector projects. It covers calculating benefit-cost ratios for single and multiple alternatives, using cost-effectiveness analysis for service sector projects, and some key differences between public and private projects like size, life, funding sources, and selection criteria. Ethical considerations are also prevalent in public policy and planning where engineers are involved.
The document discusses various methods for depreciating assets and depleting natural resources over time. It defines key terms, outlines learning outcomes, and provides examples of calculating depreciation using straight line, declining balance, double declining balance, and MACRS methods. It also covers cost depletion and percentage depletion methods for natural resources.
This document discusses replacement studies and key concepts:
1. A replacement study determines whether to replace an existing asset (defender) or keep it by comparing the annual worth (AW) of the defender to potential replacement assets (challengers).
2. The economic service life is the number of years an asset can be kept until its AW is lowest.
3. A replacement study either considers an unlimited time horizon or a specified study period. Over unlimited time, the defender is kept until its economic service life and then replaced. Within a specified period, all combinations are considered.
4. The replacement value is the defender's market value that equalizes its AW with a challenger, helping determine if the challenger
This document discusses techniques for analyzing cash flows that involve shifting, combining factors, and gradients. It provides examples of how to calculate present and future values for shifted uniform series, series with single cash flows, and both positive and negative arithmetic and geometric gradients. The key steps involve renumbering cash flows to determine the applicable time periods, then using the appropriate present worth, future worth, or gradient factors and equations.
Chapter 2 factors, effect of time & interest on moneyBich Lien Pham
This document discusses factors related to time and interest rates that affect money. It covers single payment factors, uniform series factors, arithmetic and geometric gradients, and methods for finding unknown interest rates or time periods. Key learning outcomes include single payment, uniform series, and gradient factors as well as techniques for determining factor values for untabulated rates or periods. Examples are provided to illustrate concepts such as single payments, uniform series, arithmetic gradients, and finding unknown rates or time periods.
Annual worth (AW) analysis allows engineers to evaluate project alternatives over multiple life cycles by converting all cash flows to equivalent uniform annual amounts at a discount rate. Key aspects of AW analysis include calculating the capital recovery rate to determine the equivalent annual cost of initial investments, and summing equivalent annual cash flows for operating, maintenance, and replacement costs over the life of each alternative. Life-cycle cost analysis takes a broader perspective by considering all costs from project inception through disposal or replacement.
Lecture # 3 compounding factors effects of inflationBich Lien Pham
This document summarizes key concepts for determining unknown interest rates, inflation rates, and numbers of periods in engineering economy problems. It discusses using the IRR, RATE, and NPER functions in Excel to calculate unknown values. It also covers handling varying interest rates over time through period-by-period analysis or approximation using an average rate. The effects of inflation are explained, including how future costs are estimated using an inflation rate. Common inflation measures like the Consumer Price Index are also introduced.
Chapter 8 ror analysis for multiple alternativesBich Lien Pham
This document discusses rate of return analysis for multiple project alternatives. It explains that incremental analysis is required to select the alternative with the highest overall rate of return. The key steps are: (1) calculate incremental cash flows between alternatives; (2) use these cash flows to calculate the incremental internal rate of return, ∆i*; (3) eliminate alternatives where ∆i* is less than the minimum acceptable rate of return; (4) repeat for remaining alternatives until one alternative remains. This process ensures the alternative with the highest overall rate of return is selected. Examples are provided to demonstrate calculating incremental cash flows and ∆i* to determine the best alternative.
Chapter 7 ror analysis for a single alternativeBich Lien Pham
1. The document discusses methods for calculating rate of return (ROR) for projects and investments, including dealing with multiple ROR values and calculating external ROR.
2. ROR is the interest rate that makes the net present value of a project's cash flows equal to zero. Multiple ROR values can exist if the cash flows change sign more than once.
3. External ROR removes the assumption that positive cash flows are reinvested at the project's ROR by considering external borrowing and investment rates. It can be calculated using the modified internal rate of return or return on invested capital approaches.
This document discusses nominal and effective interest rates. It begins by defining key terms like nominal rate, effective rate, compounding period, and payment period. It then explains how to convert between nominal and effective rates for different compounding frequencies. The document provides examples of calculating future values for single payments and series of payments when the payment period is greater than or less than the compounding period. It also covers calculations for continuous compounding and situations when interest rates vary over time.
This document is a slide set on after-tax economic analysis that was developed by Dr. Don Smith of Texas A&M University. It covers key topics related to after-tax cash flows and economic evaluation including terminology, taxes, depreciation, replacement analysis, and international tax considerations. The learning objectives are to understand after-tax concepts and how to incorporate taxes into economic analysis using spreadsheets. Examples are provided to illustrate after-tax calculations and how the results can differ from before-tax analysis.
1. Breakeven analysis determines the level of a variable (e.g. quantity, units) that results in no profit or loss. It is used to evaluate a single project or choose between two alternatives.
2. Payback period is the estimated time required for cash inflows from a project to recover its initial investment. It can be calculated with or without considering the time value of money (discounted vs no-return payback).
3. Both breakeven analysis and payback period are useful initial screening tools but should not be used as the sole criteria for accepting or rejecting projects, as they do not consider cash flows or returns after the payback period. More comprehensive analyses like net present value are
This document provides an overview of techniques for formalized sensitivity analysis and expected value decisions. It discusses determining sensitivity to parameter variation, using three estimates to analyze sensitivity, calculating expected values of cash flows and alternatives, and using decision trees to model staged evaluations under uncertainty. The techniques aim to account for variability in parameters, quantify uncertainty through probabilities, and identify best decisions considering risk.
1. The document discusses the time value of money concept in engineering economy. It defines key terms like interest rate, present value, future value, simple interest, and compound interest.
2. Various interest factors like single payment compound amount, uniform series present worth, capital recovery, and sinking fund are introduced. Formulas and cash flow diagrams are provided for calculating these factors.
3. Microsoft Excel functions that can be used to compute time value of money calculations are also presented.
This document discusses methods for estimating capital and product costs. It describes capital costs as including fixed costs like manufacturing equipment, non-manufacturing indirect costs, and working capital. Product costs include variable manufacturing costs, fixed costs, overhead, general expenses, and distribution/marketing. The document outlines several methods for estimating capital costs, including using percentage of equipment costs, capacity factors to account for scale, and inflation indexes to adjust for time. Accuracy of estimates ranges from +/- 5% for detailed to +/- 40% for order-of-magnitude.
The document discusses various measures used to evaluate the profitability of projects, including return on investment (ROI), payback period (PBP), net present worth or value (NPV), and discounted cash flow rate of return (DCFRR). It provides definitions and examples of calculating each measure. ROI is defined as average annual profit divided by total capital investment. PBP is the time for cumulative cash flows to recover the fixed capital investment. NPV considers the time value of money by taking the present value of all after-tax cash flows. DCFRR is the interest rate that results in an NPV of 0.
The document outlines the key topics that will be covered in a lecture on chemical process economics, including the foundations of engineering economy, analysis of costs and profitability, optimization techniques, decision-making under risk and uncertainty, and the importance of ethics in decision-making. The lecture will teach students the fundamentals, methods, and full process of evaluating engineering projects and determining the best choice among alternatives.
This document provides an executive summary and learning objectives for a chapter on decision making under risk and uncertainty. It introduces key concepts like risk, uncertainty, random variables, probability distributions, expected value, standard deviation, and Monte Carlo simulation. These concepts are illustrated through examples of decision making problems that involve random variables and estimating outcomes through sampling from probability distributions.
This document discusses investment alternatives and methods for evaluating them, including present worth (PW) and annual worth (AW). It covers the following key points:
- There are four types of investment alternatives: mutually exclusive set, independent set, single project, and "do nothing" option.
- PW and AW can both be used to evaluate alternatives, with PW preferred for revenue projects and AW for cost projects.
- When alternatives have different lives, the lowest common multiple approach is used to evaluate them over the same period for comparison.
- Examples are provided to illustrate how to calculate PW and AW for alternatives and choose the most favorable option based on these measures.
Lecture # 4 gradients factors and nominal and effective interest ratesBich Lien Pham
This document discusses gradient factors and shifted gradients. Gradients are cash flows that increase or decrease by a regular pattern. Gradient factors are used to calculate equivalent present worth, annual worth, and future worth for gradient cash flow series. The document covers arithmetic gradients, which increase or decrease by a constant amount each period, and geometric gradients, which increase or decrease by a constant percentage each period. It also discusses how to handle gradients when the present worth point is not at time zero, known as shifted gradients. Formulas and spreadsheet functions like NPV are presented for calculating present worth for various gradient types and shifted scenarios.
The document discusses three potential investments being evaluated using several profitability measures: return on invested capital (ROI), payback period (PBP), net present value (NPV), and discounted cash flow rate of return (DCFRR). For each investment, the fixed capital, working capital, salvage value, service life, and annual gross income minus expenses are provided. Calculations are shown for depreciation, taxes, net profits, cash flows, and the various profitability measures. Based on the results, Investment 1 is acceptable while Investments 2 and 3 are unacceptable based on their PBP and ROI.
The document discusses various methods for depreciating assets and depleting natural resources over time. It defines key terms, outlines learning outcomes, and provides examples of calculating depreciation using straight line, declining balance, double declining balance, and MACRS methods. It also covers cost depletion and percentage depletion methods for natural resources.
This document is a lecture on cost estimation that covers several topics:
1) It discusses capital costs including fixed capital and working capital.
2) It explains the breakdown of total product costs including manufacturing costs, general expenses, and their typical percentages.
3) It provides examples of cost estimation problems from referenced textbooks, showing calculations for direct costs, indirect costs, depreciation, taxes, net profit, and cash flow.
This document discusses depreciation and provides details on various depreciation methods. It defines depreciation as how businesses can recover the lost value of capital assets over time by deducting the asset's value from taxes. The document outlines straight-line, declining balance, and MACRS depreciation methods. It explains key terms like book value, salvage value, and recovery period and provides examples of how to calculate depreciation using different methods.
This document discusses various methods for estimating capital costs for chemical engineering projects. It describes different types of cost estimates ranging from order-of-magnitude to detailed estimates. It also covers adjusting costs based on changes in equipment capacity and time. Methods like Lang factors, module cost approach, and total plant cost estimates are outlined. Factors like materials, pressure, and temperature that influence capital costs are also addressed.
This document discusses concepts related to corporate income taxes and cash flow analysis. It defines key terms like gross income, taxable income, depreciation, taxes owed, and net profit after tax. It also discusses how to calculate cash flow before taxes and after taxes for each year of a project. The document provides an example cash flow analysis for a project using straight-line, double declining balance, and MACRS depreciation methods to demonstrate how different depreciation approaches can affect taxes paid over the life of a project. It emphasizes that accelerated depreciation methods and shorter recovery periods can lower the present value of total taxes paid.
This document discusses methods for estimating capital and product costs. It describes several methods for estimating capital costs, including: (1) a detailed-item estimate, (2) a unit cost estimate based on existing data, and (3) estimating other capital costs as percentages of the delivered equipment cost. It also covers the power factor method of scaling costs based on capacity, as well as estimating capital using the turnover ratio. The document provides an overview of cost components and recommends methods suited to different levels of estimate accuracy needed.
Lecture # 3 compounding factors effects of inflationBich Lien Pham
This document summarizes key concepts for determining unknown interest rates, inflation rates, and numbers of periods in engineering economy problems. It discusses using the IRR, RATE, and NPER functions in Excel to calculate unknown values. It also covers handling varying interest rates over time through period-by-period analysis or approximation using an average rate. The effects of inflation are explained, including how future costs are estimated using an inflation rate. Common inflation measures like the Consumer Price Index are also introduced.
Used by engineering students worldwide, this best-selling text provides a sound understanding of the principles, basic concepts, and methodology of engineering economy. Built upon the rich and time-tested teaching materials of earlier editions, it is extensively revised and updated to reflect current trends and issues, with an emphasis on the economics of engineering design throughout. It provides one of the most complete and up-to-date studies of this vitally important field.
The document discusses various capital budgeting techniques for evaluating investment projects, including net present value (NPV), internal rate of return (IRR), payback period, discounted payback period, and profitability index. It provides examples of calculating each measure and outlines their basic rules. NPV is presented as the preferred method since it considers the time value of money and risk. Other methods like payback period are seen as less rigorous but still useful for measuring aspects like liquidity.
This document provides an overview of key concepts related to capital budgeting decisions, including definitions of capital budgeting, cash flows, time value of money, present value, and compound interest. It discusses discounted cash flow models and techniques for evaluating capital projects, including net present value, internal rate of return, payback period, and accounting rate of return. Sample problems demonstrate how to apply these techniques to evaluate potential capital investments.
This document is a slide set on after-tax economic analysis that was developed by Dr. Don Smith of Texas A&M University. It covers key topics related to after-tax cash flows and analysis, including terminology, taxes and depreciation, after-tax cash flows, replacement analysis, and international tax considerations. The slide set contains 28 slides with learning objectives, definitions, equations, examples, and a chapter summary on after-tax analysis techniques for evaluating industrial projects.
Slide 1
8-1
Capital Budgeting
• Analysis of potential projects
• Long-term decisions
• Large expenditures
• Difficult/impossible to reverse
• Determines firm’s strategic direction
When a company is deciding whether to invest in a new project, large sums of money can be at stake. For
example, the Artic LNG project would build a pipeline from Alaska’s North Slope to allow natural gas to
be sent from the area. The cost of the pipeline and plant to clean the gas of impurities was expected to be
$45 to $65 billion. Decisions such as these long-term investments, with price tags in the billions, are
obviously major undertakings, and the risks and rewards must be carefully weighed. We called this the
capital budgeting decision. This module introduces you to the practice of capital budgeting. We will
consider a variety of techniques financial analysts and corporate executives routinely use for the capital
budgeting decisions.
1. Net Present Value (NPV)
2. Payback Period
3. Average Accounting Rate (AAR)
4. Internal Rate of Return (IRR) or Modified Internal Rate of Return (MIRR)
5. Profitability Index (PI)
Slide 2
8-2
• All cash flows considered?
• TVM considered?
• Risk-adjusted?
• Ability to rank projects?
• Indicates added value to the firm?
Good Decision Criteria
All things here are related to maximize the stock price. We need to ask ourselves the following
questions when evaluating capital budgeting decision rules:
Does the decision rule adjust for the time value of money?
Does the decision rule adjust for risk?
Does the decision rule provide information on whether we are creating value for the firm?
Slide 3
8-3
Net Present Value
• The difference between the market value of a
project and its cost
• How much value is created from undertaking
an investment?
Step 1: Estimate the expected future cash flows.
Step 2: Estimate the required return for projects of
this risk level.
Step 3: Find the present value of the cash flows and
subtract the initial investment to arrive at the Net
Present Value.
Net present value—the difference between the market value of an investment and its cost.
The NPV measures the increase in firm value, which is also the increase in the value of what the
shareholders own. Thus, making decisions with the NPV rule facilitates the achievement of our
goal – making decisions that will maximize shareholder wealth.
Slide 4
8-4
Net Present Value
Sum of the PVs of all cash flows
Initial cost often is CF0 and is an outflow.
NPV =∑
n
t = 0
CFt
(1 + R)t
NPV =∑
n
t = 1
CFt
(1 + R)t
- CF0
NOTE: t=0
Up to now, we’ve avoided cash flows at time t = 0, the summation begins with cash flow zero—
not one.
The PV of future cash flows is not NPV; rather, NPV is the amount remaining after offsetting the
PV of future cash flows with the initial cost. Thus, the NPV amount determines the incremental
value created by unde.
This document discusses various methods for evaluating engineering projects using cash flow analysis and discounted cash flow methods. It defines key terms like present value, net present value, internal rate of return, payback period, and discount rates. Examples are provided to illustrate how to use these methods to calculate metrics like NPV, IRR, payback period for both acceptance/rejection of projects.
This document discusses various methods for evaluating engineering projects using cash flow analysis and discounted cash flow methods. It defines key terms like present value, net present value, internal rate of return, payback period, and discount rates. Examples are provided to illustrate how to use these methods to calculate metrics like NPV, IRR, payback period for both acceptance/rejection of projects.
This document discusses various capital budgeting techniques used to evaluate business investment projects, including net present value (NPV), internal rate of return (IRR), profitability index (PI), payback period, and average rate of return (ARR). It provides examples of how to calculate each metric and explains the appropriate decision rules and limitations of each approach.
This document provides an overview of capital budgeting and cash flow analysis for investment projects. It defines key terms like capital expenditures, sunk costs, opportunity costs, and discusses how to estimate cash flows, including operating, terminal, and tax cash flows. It emphasizes the importance of using relevant cash flows to evaluate whether projects increase shareholder wealth.
Brad Simon - Finance Lecture - Project Valuationbradhapa
This lecture discusses project valuation and capital budgeting. It introduces estimating a company's weighted average cost of capital (WACC) as the hurdle rate for projects. It also covers estimating incremental free cash flows from projects and using time-weighted tools like net present value (NPV) and internal rate of return (IRR) to evaluate whether projects will create or destroy shareholder value based on exceeding the WACC. The key steps are determining the WACC, estimating cash flows, and using tools like NPV and IRR to analyze project value.
This lecture discusses project valuation and capital budgeting. It introduces estimating a company's weighted average cost of capital (WACC) as the hurdle rate for projects. It also covers estimating incremental free cash flows from projects and using time-weighted tools like net present value (NPV) and internal rate of return (IRR) to evaluate whether projects will create or destroy shareholder value based on exceeding the WACC. The key steps are determining the WACC, estimating cash flows, and using tools like NPV and IRR to analyze project value.
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Task 4 - Resume Making Capital Investment Decisions.pptxZalfa36
This document discusses various concepts related to making capital investment decisions. It covers relevant cash flows, the stand-alone principle, situations involving incremental cash flows like sunk costs and opportunity costs. It also discusses net working capital, financing costs, pro forma financial statements, and calculating project cash flows. An example of evaluating a mulch and compost company project is provided to illustrate cash flow calculations. Different approaches for calculating operating cash flow like the bottom-up, top-down, and tax shield approaches are also explained.
This document summarizes key concepts for determining unknown interest rates, inflation rates, and numbers of periods in engineering economy problems. It discusses using the IRR, RATE, and NPER functions in Excel to calculate unknown values. It also covers handling varying interest rates over time through period-by-period analysis or approximation using an average rate. The effects of inflation are explained, including how future costs are estimated using an inflation rate. Common inflation measures like the Consumer Price Index are also introduced.
The document discusses various investment criteria for capital budgeting decisions, with a focus on net present value (NPV). It defines NPV as the difference between the present value of a project's expected future cash flows and the initial investment cost. The document also discusses other criteria like payback period, accounting rate of return, and internal rate of return. It provides examples to demonstrate how to calculate NPV and compares it to other criteria. It emphasizes that NPV is preferable because it considers the time value of money and risk, and indicates whether a project will increase firm value.
This document discusses various capital budgeting techniques used to evaluate investment projects, including payback period, net present value (NPV), and internal rate of return (IRR). It explains how to calculate and use each method to make accept/reject decisions for independent projects or choose between mutually exclusive projects. While NPV and IRR typically yield the same results, they may sometimes rank projects differently, posing potential conflicts. The document also covers capital rationing, risk adjustment, and required returns that vary by project risk levels.
This document discusses various capital budgeting techniques used to evaluate investment projects, including payback period, net present value (NPV), and internal rate of return (IRR). It explains how to calculate and use each method to make accept/reject decisions for independent projects or choose between mutually exclusive projects. While NPV and IRR typically yield the same results, they may sometimes rank projects differently, posing potential conflicts. The document also covers capital rationing, risk adjustment, and required returns that vary by project risk levels.
The document summarizes an equity valuation of The Walt Disney Company conducted by Sonali Jain. The valuation uses a discounted cash flow model and multiples valuation.
The DCF model involves forecasting Disney's earnings over 5 years, estimating cash flows by calculating items like depreciation, capital expenditures and working capital requirements. It also estimates Disney's discount rate and calculates the terminal value.
A multiples valuation is also conducted using metrics like P/E, EV/EBITDA compared to competitors. Sensitivity analysis is performed on the discount rate and growth rate.
The conclusion notes limitations of the DCF model and importance of understanding the company's fundamentals over precision of methods used.
1. Payback Period and Net Present Value[LO1, 2] If a project with .docxpaynetawnya
1. Payback Period and Net Present Value[LO1, 2] If a project with conventional cash flows has a payback period less than the project’s life, can you definitively state the algebraic sign of the NPV? Why or why not? If you know that the discounted payback period is less than the project’s life, what can you say about the NPV? Explain.
Internal Rate of Return[LO5] Concerning IRR:
a. Describe how the IRR is calculated, and describe the information this measure provides about a sequence of cash flows. What is the IRR criterion decision rule?
b. What is the relationship between IRR and NPV? Are there any situations in which you might prefer one method over the other? Explain.
c. Despite its shortcomings in some situations, why do most financial managers use IRR along with NPV when evaluating projects? Can you think of a situation in which IRR might be a more appropriate measure to use than NPV? Explain.
14. Net Present Value[LO1] It is sometimes stated that “the net present value approach assumes reinvestment of the intermediate cash flows at the required return.” Is this claim correct? To answer, suppose you calculate the NPV of a project in the usual way. Next, suppose you do the following:
a. Calculate the future value (as of the end of the project) of all the cash flows other than the initial outlay assuming they are reinvested at the required return, producing a single future value figure for the project.
b. Calculate the NPV of the project using the single future value calculated in the previous step and the initial outlay. It is easy to verify that you will get the same NPV as in your original calculation only if you use the required return as the reinvestment rate in the previous step.
17. Comparing Investment Criteria Consider the following two mutually exclusive projects:
Year Cash Flow (A) Cash Flow (B)
If you apply the payback criterion, which investment will you choose? Why?
b. If you apply the discounted payback criterion, which investment will you choose? Why?
c. If you apply the NPV criterion, which investment will you choose? Why?
d. If you apply the IRR criterion, which investment will you choose? Why?
e. If you apply the profitability index criterion, which investment will you choose? Why?
5. Equivalent Annual Cost [LO4]
1. When is EAC analysis appropriate for comparing two or more projects?
2. Why is this method used?
3 .Are there any implicit assumptions required by this method that you find troubling? Explain.
6. Cash Flow and Depreciation [LO1] “When evaluating projects, we’re concerned with only the relevant incremental after tax cash flows. Therefore, because depreciation is a noncash expense, we should ignore its effects when evaluating projects.” Critically evaluate this statement.
QUESTION AND PROBLEMS
1. Relevant Cash Flows [LO1] Parker & Stone, Inc., is looking at setting up a new manufacturing plant in South Park to produce garden tools. The company bought some land six years ago for $5 ...
This document discusses various investment criteria used to evaluate capital budgeting projects. It covers net present value, benefit-cost ratio, internal rate of return, payback period, and accounting rate of return. Formulas are provided for calculating each method along with their pros and cons. The key steps in investment evaluation are estimating costs and benefits, assessing risk, calculating the cost of capital, and using these criteria to determine if a project is worthwhile.
Similar to Lecture # 10 eva and disposal of assets (20)
Direct and indirect costs must be estimated for engineering projects. Common direct cost estimation techniques include the unit method, cost indexes, and cost-estimating relationships. Indirect costs can comprise 25-50% of total costs and are traditionally allocated using predetermined rates. Activity-based costing is a more accurate allocation method that uses cost drivers. Ethical practices like avoiding deception are important for quality cost estimation.
The document discusses the effects of inflation on engineering economy calculations. It defines inflation and presents two methods for accounting for inflation: 1) converting cash flows to constant value dollars using the real interest rate, and 2) using future dollars and the inflation-adjusted interest rate. The key effects of inflation are a reduction in purchasing power over time as money buys fewer goods/services. The document also discusses how inflation impacts present worth, future worth, and capital recovery calculations.
This document discusses capital budgeting for independent projects with budget limitations. It covers calculating the present worth (PW) of mutually exclusive bundles of projects to maximize return within a budget. For large numbers of projects, a linear programming model is presented to maximize PW. Different measures for ranking projects are discussed, including PW, internal rate of return, and present worth index, which may select different projects as each maximizes a different parameter.
This document discusses replacement studies and key concepts:
1. A replacement study determines whether to replace an existing asset (defender) or keep it by comparing the annual worth (AW) of the defender to potential replacement assets (challengers).
2. The economic service life is the number of years an asset can be kept until its AW is lowest.
3. A replacement study is performed by calculating the AW of the defender and challengers over their lifetimes or a specified study period to determine the lowest cost option.
4. The replacement value is the market value of the defender that makes its AW equal to a challenger, helping decide whether to replace or retain the defender.
This document contains a chapter summary for a textbook on engineering economy. It discusses various methods for evaluating mutually exclusive alternatives, including present worth, annual worth, rate of return, and benefit-cost ratio. It also covers determining the minimum attractive rate of return and weighted average cost of capital, accounting for the costs of debt and equity. The chapter addresses evaluating projects with multiple attributes using weighted sums and introduces qualitative factors beyond economic measures.
The document discusses benefit-cost analysis for public sector projects. It covers calculating benefit-cost ratios for single and multiple alternatives, using cost-effectiveness analysis for service sector projects, and some key differences between public and private projects like size, life, funding sources, and selection criteria. Ethical considerations are also prevalent in public policy and planning where engineers are involved.
Chapter 8 ror analysis for multiple alternativesBich Lien Pham
This document discusses rate of return analysis for multiple project alternatives. It introduces the concept of incremental rate of return analysis, which determines the rate of return on the additional investment required for a more expensive alternative. The key steps are: (1) calculate incremental cash flows between two alternatives, (2) determine the incremental rate of return (Δi*) on those cash flows, and (3) eliminate the more expensive alternative if Δi* is less than the minimum acceptable rate of return. This process is repeated to evaluate all alternatives two at a time until only one remains. Incremental analysis ensures the alternative selected maximizes overall return on the total capital available.
Chapter 7 ror analysis for a single alternativeBich Lien Pham
1) The document discusses methods for calculating rate of return (ROR) for projects and investments.
2) There are several ways to calculate ROR, including using present worth, future worth, or annual worth equations. Multiple ROR values may exist if there is more than one change in cash flow signs.
3) Calculating external ROR (EROR) removes the assumption that positive cash flows are reinvested at the project's ROR. It uses modified ROR (MIRR) or return on invested capital (ROIC) methods while assuming external borrowing and investment rates.
Annual worth (AW) analysis allows engineers to evaluate project alternatives that have different lives by converting all cash flows to equivalent uniform annual amounts at a discount rate. The key advantages of AW analysis are that it only requires calculating values for one life cycle and all cash flows for subsequent cycles will be the same. Engineers can use AW analysis to evaluate both finite-lived and perpetual project alternatives. Life-cycle cost analysis takes a broader perspective by considering all costs incurred over a project's full lifespan from concept to disposal.
This document summarizes key concepts in engineering economy analysis including:
1. Present worth analysis which converts cash flows to present value using a discount rate to evaluate alternatives of equal or different lifetimes.
2. Alternatives can be mutually exclusive, competing directly, or independent projects that are evaluated separately.
3. Equal service lifetimes are achieved by using the least common multiple of lifetimes or a specified study period.
4. Future worth analysis follows the same process as present worth but calculates future rather than present values.
5. Capitalized cost analysis treats projects as having infinite lifetimes by calculating the perpetual equivalent uniform annual cash flow.
The document discusses key concepts related to nominal and effective interest rates, including:
1) Definitions of interest period, compounding period, and compounding frequency.
2) Formulas for converting between nominal and effective interest rates for different time periods.
3) Procedures for performing interest calculations for single amounts, series cash flows, and situations where the payment period relates to the compounding period.
4) How to handle cases of continuous compounding and varying interest rates over time.
This document discusses techniques for analyzing cash flows that occur at times other than the standard uniform series. It introduces methods for shifted uniform series using factors such as P/A and F/A. It also covers combining uniform series with single cash flows. Additionally, it examines shifted arithmetic and geometric gradients, including how to handle negative gradients. The key learning points are re-stated in the summary section.
Chapter 2 factors, effect of time & interest on moneyBich Lien Pham
This document discusses factors related to time and interest rates that affect money. It covers single payment factors, uniform series factors, arithmetic and geometric gradients, and methods for finding unknown interest rates or time periods. Key learning outcomes include single payment, uniform series, and gradient factors as well as techniques for determining factor values for untabulated rates or periods. Examples are provided to illustrate concepts such as single payments, uniform series, arithmetic gradients, and finding unknown rates or time periods.
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Every industrial revolution has created a new set of categories and a new set of players.
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