Lecture(4) Instructor : Dr. Abed Al-Majed Nassar 2009-2010.

Slides:



Advertisements
Similar presentations
Lecture 7 Evaluating a Single Project PW, FW, AW IRR
Advertisements

Interest and Equivalence L. K. Gaafar. Interest and Equivalence Example: You borrowed $5,000 from a bank and you have to pay it back in 5 years. There.
Chapter 4. Economic Factors in Design The basis of design decisions will be economics. Designing a technically safe and sound system will be only part.
Acct Chapter 10 Copyright © 2014 McGraw-Hill Education. All rights reserved. No reproduction or distribution without the prior written consent of.
Engineering Economics I
Present Worth Analysis
Econ. Lecture 3 Economic Equivalence and Interest Formula’s Read 45-70
Engineering Economics ENGR 3300
(c) 2002 Contemporary Engineering Economics 1 Chapter 4 Time Is Money Interest: The Cost of Money Economic Equivalence Development of Interest Formulas.
Slide to accompany Blank and Tarquin Basics of Engineering Economy, 2008 © 2008 by McGraw-Hill All Rights Reserved Basics of Engineering Economy.
Present Worth I Economic basis to evaluate engineering projects.
EE535: Renewable Energy: Systems, Technology & Economics
Lecture(4) Measurement of System performance Infrastructure performance measurement Infrastructure performance measurement must be multidimensional,
State University of New York WARNING All rights reserved. No part of the course materials used in the instruction of this course may be reproduced in any.
Module 3 ANNUITY Engr. Gerard Ang School of EECE.
(c) 2002 Contemporary Engineering Economics
Chapter 3 - Interest and Equivalence Click here for Streaming Audio To Accompany Presentation (optional) Click here for Streaming Audio To Accompany Presentation.
(c) 2002 Contemporary Engineering Economics
VI-Economic Evaluation of Facility Investments 1. Project Life Cycle and Economic Feasibility 2.Basic Concepts of Economic Evaluation 3.Costs and Benefits.
Lecture No. 54 Chapter 16 Contemporary Engineering Economics Copyright © 2010 Contemporary Engineering Economics, 5th edition, © 2010.
FDM9 Capital investment appraisal 1 Capital investment appraisal 1.
Engineering Economy: Eide (chapter 13) & Chase (pages )
Lecture(3) Instructor : Dr. Abed Al-Majed Nassar
Interest Formulas (Gradient Series) Lecture No.6 Professor C. S. Park Fundamentals of Engineering Economics Copyright © 2005.
Financing Unit 6.
ANNUITIES & DISCOUNTED CASH FLOW RATE OF RETURN. ANNUITY EQUATIONS  ARE USED TO EVALUATE DIFFERENT OPTIONS FOR FINANCING PROJECTS  THE BASE PROJECT.
Chapter 16 Real Estate and High-Risk Investments.
Naval Postgraduate School Time Value of Money Discounted Cash Flow Techniques Source: Raymond P. Lutz, “Discounted Cash Flow Techniques,” Handbook of Industrial.
EPT 221 Engineering Design Introduction to Engineering Economics.
Introduction ► This slide deck provides a suggested framework for the financial evaluation of an investment project. When evaluating any such project,
Summer Time Value of Money Session 2 07/02/2015.
ENGR 112 Economic Analysis. Engineering Economic Analysis Evaluates the monetary aspects of the products, projects, and processes that engineers design.
PRINCIPLES OF MONEY-TIME RELATIONSHIPS. MONEY Medium of Exchange -- Means of payment for goods or services; What sellers accept and buyers pay ; Store.
Steve Paulone Facilitator Financial Management Decisions The financial manager is concerned with three primary categories of financial decisions:  1.Capital.
Lectures in Engineering Economy Prof. Corrado lo Storto DIEG, Dept. of Economics and Engineering Management School of Engineering, University of Naples.
Capital Budgeting, Public Infrastructure Investment, and Project Evaluation Troy University PA6650- Governmental Budgeting Chapter 6.
Long-Term (Capital Investment) Decisions
Economic System Analysis January 15, 2002 Prof. Yannis A. Korilis.
Economic Evaluation of PV systems in Jordan
Phoenix Convention Center Phoenix, Arizona Introduction to Life-Cycle Cost Analysis Agency Energy ManagerLife-Cycle Cost Methodology Mike Mills, CPA, BEP.
Business Funding & Financial Awareness Time Value of Money – The Role of Interest Rates in Decision Taking J R Davies May 2011.
Chapter 4: The Time Value of Money
Engineering Economic Analysis Canadian Edition
Topic 3 Infrastructure Maintenance & Rehabilitation Session Matakuliah: S0902 – Manajemen Infrastruktur Tahun: 2010.
0 CHAPTER 10 Long-Term (Capital Investment) Decisions © 2009 Cengage Learning.
Evaluating a Single Project
ENGR 112 Economic Analysis II. Engineering Economic Analysis Time Value of Money $1 today is more valuable than $1 a year later Engineering economy adjusts.
Engineering Economic Analysis Canadian Edition Chapter 3: Interest and Equivalence.
Chapter 8 Long-Term (Capital Investment) Decisions.
Life-cycle cost analysis (LCCA)
Financial Mathematics 1. i = interest rate (per time period) n = # of time periods P = money at present F = money in future –After n time periods –Equivalent.
Financial Analysis. Module 1 : Solar Technology Basics Module 2: Solar Photo Voltaic Module Technologies Module 3: Designing Solar PV Systems ( Rooftops)
MER Design of Thermal Fluid Systems INTRODUCTION TO ENGINEERING ECONOMICS Professor Bruno Winter Term 2005.
CHAPTER 4 MONEY-TIME RELATIONSHIPS AND EQUIVALENCE.
ECONOMIC EQUIVALENCE Established when we are indifferent between a future payment, or a series of future payments, and a present sum of money. Considers.
Ch 10-1 © 2004 Pearson Education, Inc. Pearson Prentice Hall, Pearson Education, Upper Saddle River, NJ Ostwald and McLaren / Cost Analysis and Estimating.
Lecture(3) Sequence of Studies for a Single Major – Infrastructure Projects 1 A preliminary (or reconnaissance) report. 2 A feasibility report.
1 Engineering Economics.  Money has a time value because it can earn more money over time (earning power).  Money has a time value because its purchasing.
Accounting (Basics) - Lecture 3 Property, plant and equipment.
(c) 2002 Contemporary Engineering Economics 1. Engineers must work within the realm of economics and justification of engineering projectsEngineers must.
Faculty of Applied Engineering and Urban Planning Civil Engineering Department Engineering Economy Lecture 1 Week 1 2 nd Semester 20015/2016 Chapter 3.
ENGINEERING ECONOMY DR. MAISARA MOHYELDIN GASIM Chapter 3 EQUIVALENCE.
F Designed to give you the knowledge and application of: Section C: Financial Statements C1. Statements of cash flows C2. Tangible non-current.
1 Engineering Economics Engineering Economy It deals with the concepts and techniques of analysis useful in evaluating the worth of systems,
Economic Analysis in the Public Sector Benefit/Cost Analysis.
APPLICATIONS OF MONEY-TIME RELATIONSHIPS
Interest Formulas – Equal Payment Series
CHAPTER 4 THE TIME VALUE OF MONEY.
Effective Personal Financial Planning
Presentation transcript:

Lecture(4) Instructor : Dr. Abed Al-Majed Nassar

Measurement of System performance Infrastructure performance measurement Infrastructure performance measurement must be multidimensional, reflecting the full range of social objectives set for infrastructure system. The performance of infrastructure could be measured by effectiveness, reliability, and cost.

Measurement of System performance Infrastructure performance measurement Cost Reliability Effectiveness

Capacity and delivery of servicesQuality of services delivered The system’s compliance with regulatory concern The system’s broad impact on the community

Reliability A recognition of various uncertainties inherent in infrastructure’s services, is the likelihood that infrastructure effectiveness will be maintained over an extended of time or the probability that service will be available at least at specified levels through the design life Cost The costs are incurred and paid at different times and places, by different agencies and groups(e.g., users, neighbors, taxpayers), and in monetary and nonmonetary terms. When the cost is acceptable and low, this gives indication that the performance is well.

Examples of Measures of System Reliability Examples MeasuresType of Indicator, Measure Engineering safety factorsDeterministic Percentage contingency allowance Risk class rating Statistical, probabilistic Confidence limit Confidence probabilities Risk functions Demand peak indicatorComposite(typically deterministic indicator of statistical variation) Peak-to-capacity ratio Return frequency (flood) Fault-tree analysis

Examples of Measures of System Cost Planning and design cost Investment, replacement, capital, or initial cost Construction cost Equity Debt Operation cost Recurrent or O&M cost Maintenance cost Repair and replacement cost Depreciation cost Depletion cost Timing of expenditure Timing and source Discount and interest rate Exchange rate and restrictions Sources of fund Service life

Losses of Value of Infrastructure Facilitates Due to change in demand or change in amount and type of services requirement. Functional Occurring when better approaches (e.g, better equipment) are available to carry out the functions of the facility. Technological Due to ordinary wear and tear, corrosion from age or use Physical Due to change in the buying power of money Monetary Arising from fires, explosions, earthquakes, etc Casualty-related Resulting from changes in legal requirements related to the serviceability or outputs of machines and structures Legal

Cost-Effectiveness Measures for Projects of Routine Nature 1.Minimize the amount of resources required TO Achieve a given level of service Meet other requirements demanded of the particular situation 2.Maximize the level of services Aims of Cost-Effectiveness Measures

Methods for comparing and Prioritizing :Infrastructure Alternatives 1 Simple Cost Basis 2 Simple Cost Basis Plus Consideration of Other Specified Engineering Factors 3 Life-Cycle Cost Basis (usually made on a present value basis 4 Cost Basis Including Adjustments Made for Additional Screening Criteria

5 Additional Primarily Cost-Driven Methodologies for State and Local Infrastructure Systems 6 Full Financial Analyses 7 Economic Analyses (or Benefit-Cost Analyses( 8 Multi-Dimensional Analyses 9 Special Studies

Parameters commonly used for formulas involving an interest rate Interest rate per interest period. i Number of interest period. n Present sum of money. P Future sum of money at the end of n period (equivalent to P with interest rate i). F Amount of each end-of-period payment or receipt in uniform series of n period. A

F P n P A AAAA A AAAA F (F/P, i, n) (P/F, i, n) (P/A, i, n) (A/P, i, n) (F/A, i, n) (A/F, i, n) Sample Cash Flow Diagram

Common formulas for equivalency Calculations Single amount

Uniform series

Examples A project costs $40,000,000 and takes five years to construct. If all of this money is borrowed at the beginning of construction, how much money is owed by the sponsor when the project is ready to operate? If the money is borrowed in five equal installments, how much is owed? In each case, assume 7 percent interest for money borrowed. 40M$ F=?? 8M$ F=F1+F2=38,005,912+11,220,413 =49,226,325M$