Industrial Engineering is System Efficiency Engineering. It is Machine Effort and Human Effort IE. 10.7 Million Page View Blog. 200,000+ visitors. (36,000+ pv, 25,500+ visitors in 2025.)------------------ Blog Provides Industrial Engineering Knowledge: Articles, Books, Case Studies, Course Pages and Materials, Lecture Notes, Project Reviews, Research Papers Study Materials, and Video Lectures.
Wednesday, August 13, 2025
Chemical Engineering Economics
Thursday, August 8, 2024
Productivity Improvement Using Rapier Looms in Place of Shuttle Looms - IE Economic Analysis.
The rapier looms offer unparalleled versatility when it comes to yarns. From the finest counts
of cotton to the thickest Industrial yarns and can handle anything thrown at its negative
rapier head. The soft-pick gear system enables smooth transition of even highly fancy yarns
like embroidery and slub. The rapier loom is upgrade from shuttle-looms to the world of
modern weaving system and shuttle-less weaving. Rapier looms has been designed to
replace the old shuttle looms without any major changes to the existing infrastructure.
2010 Engineering Economic Analysis for Rapier Loom
http://www.dcmsme.gov.in/reports/solapurtextile/13Autoloom08.pdf
Economic Analysis - Clean Energy Investment Proposals
The economic analysis presented in the knol - Clean Energy 2030,
Economics
- Efficiency capital cost of 25 cents per kWh annual savings (one-time cost)
- Savings from efficiency of 10 cents per kWh (average electricity price)
- Renewable electricity capital costs:
- Onshore wind: $2 per watt (W) falling to $1.5/W in 2030
- Offshore wind: $2.5/W falling to $2/W in 2030
- Solar PV: $6/W falling to $2/W in 2030
- Solar CSP: $3.5/W falling to $2/W in 2030
- Conventional geothermal: $3.5/W flat through 2030
- Enhanced geothermal systems: $5/W falling to $3.5/W in 2030
- Intermittency cost of $20/MWh (applied to wind and solar)
- Avoided fossil capital costs (for plants planned in baseline but not built in our proposal because of efficiency and renewables):
- Coal: $2/W constant
- Natural gas and oil: $1/W constant
- Saved fossil fuel cost (that is not already counted as efficiency savings):
- Coal: $2/MBtu constant
- Natural gas and oil: $10/MBtu constant
- No write-down cost for retiring coal plants (all plants assumed to be older than 40 years when retired), no decommissioning cost or salvage value for plants
- Transmission infrastructure cost: $0.30/W for wind (including offshore) and solar CSP
- Plug-in vehicle premiums: $5000 per plug-in hybrid vehicle (PHEV), $10,000 per pure-electric vehicle (EV), plus $1000 per vehicle for charging infrastructure
- Higher-efficiency conventional vehicle premium $3000 for 45 mpg (pro-rated for lower mpg, down to zero cost for 22 mpg today)
- Fuel cost: $4/gallon gasoline today, doubling to $8/gallon by 2030
- Plug-in electricity cost: 7 cents per kWh (discounted due to flexible smart-charging price)
- Older vehicle buy-back cost: $5000 per vehicle
- Carbon credit for CO2 not emitted (relative to baseline): $20/ton CO2, doubling to $40/ton in 2030 (applied to both electricity and vehicles)
- Making gasoline significantly more or less expensive changes the cost of the scenario relative to the baseline, and here the change can have a sizable impact on net savings. If gasoline rises to $12/gallon in 2030 rather than $8, an additional $1,189 billion in undiscounted savings are realized. If gasoline remains constant at $4/gallon in 2030, an additional cost of $1,317 billion is incurred, changing the balance to a net cost of $323 billion.
| Costs | Undiscounted total | Net present value* |
| Electrical efficiency investment | $348 | $175 |
| Renewable capacity investment | $1,642 | $712 |
| Transmission capacity investment | $133 | $59 |
| Intermittency cost | $329 | $121 |
| Coal plant write-down, decommissioning and salvage | $0 | $0 |
| Plug-in vehicle premium | $1,221 | $374 |
| Plug-in electricity cost | $122 | $35 |
| Higher efficiency conventional vehicle premium | $325 | $146 |
| Vehicle buyback cost | $322 | $119 |
| Subtotal | $4,442 | $1,742 |
| Savings | ||
| Electrical efficiency savings | $1,599 | $620 |
| Avoided fossil fuel generation capacity savings | $267 | $117 |
| Avoided fossil fuel savings | $437 | $162 |
| Plug-in fuel savings | $2,193 | $626 |
| Conventional fuel savings | $939 | $368 |
| Subtotal | $5,435 | $1,893 |
| Net savings | $994 | $151 |
| Carbon credits | $1,134 | $397 |
| Net savings with carbon credits | $2,128 | $548 |
- References
Related Blog Posts by Me in This Blog
Energy Efficiency Conference - ECEEE
Energy Efficiency and Productivity - International Events and Examples
Industrial Engineering in Electical Engineering
Cost Reduction Opportunities in Power Plants and Distribution Systems
Economic Analysis - Clean Energy Investment Proposals
Energy Productivity - Efficiency Improvement
Energy Industrial Engineering
National Energy Conservation Day
Industrial Engineering Economic Analysis Module - Lessons
Module of Industrial Engineering ONLINE Course
- Introduction to Industrial Engineering
- Contribution of Taylor, Gilbreth, Emerson, Maynard, Barnes, Shigeo Shingo
- Productivity Science
- Productivity Engineering -
- IE Economic Analysis
- IEOR
- IE Statistics - Six Sigma Optimization
- Human Effort Industrial Engineering
- IE Measurements
- Productivity Management
- Applied Industrial Engineering
- Industrial Engineering 4.0
- Industrial Engineering Case Studies
Industrial Engineering Economic Analysis
Industrial Engineering Economics - Important Component of Industrial Engineering
Time Value of Money - Time Value of Money Calculations
Cash Flow Estimation for Expenditure Proposals
Required Rate of Return - Cost of Capital - Required Rate of Return for Investment or Expenditure Proposal..
NPV - IRR and Other Summary Project Assessment Measures
Expected Values and Risk of Project Revenues and Costs
Case Studies
INTRODUCTION TO MODERN INDUSTRIAL ENGINEERING.
Prof. Laura Albert
Saturday, June 11, 2022
Industrial Engineering Economic Analysis
Accompanying case study: Honda Model Variety Reduction To Cut Costs, Boost Production Efficiency
Lesson 10. Process Industrial Engineering
Every industrial engineering project proposal (cost reduction project proposals) must be accompanied by economic analysis that promises a return higher than required rate of return.
The Role of IE in Engineering Economics.
By Riel, Philippe F.
IIE Solutions, April 1998
Industrial Engineering Theory - Industrial Engineering Economic Analysis - Production function
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The set of evaluation methods of Engineering Economics is an efficiency improvement tool in the hands of industrial engineer. Industrial engineering is system efficiency engineering.
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A Quote
http://www.download-it.org/free_files/Pages%20from%20Chapter%2016%20-%20Engineering%20Economics%20-1faea7ed1d0c63b4b3980e536ad46e1e.pdf
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Engineering Economic Appraisal - A Special Role for Industrial Engineers
Engineering Economics is part of Industrial Engineering Tool Kit. Industrial Engineering Tool Kit
Engineering Economy or Engineering Economics: Economic Decision Making by Engineers
Engineering Economy: An Explanation
Economic Decision Making
Engineering Efficiency Versus Financial Efficiency
Searching for Low Engineering Efficiency Alternatives
Cost Reduction Expenditures and Income Expansion Expenditures
Rate of Return on Capital (Finance)
Cost of Capital
Profit: Accounting and Economics Viewpoints
Engineering Economy Study
References
Engineering Economics is an Efficiency Improvement Tool for Industrial Engineers
Engineering Economic Appraisal - A Special Role for Industrial Engineers
Engineering economic analysis is to be carried out by all engineers. These analysis reports must be appraised by IE department engineers. IEs can evaluate whether sufficient technical alternatives were considered in proposing the technical solution now recommended and then check the data and calculations of the economic analysis. From IE department, the proposal can go the project appraisal committee.
Engineering Economics is part of Industrial Engineering Tool Kit
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Bibliography
Industrial Engineering Knowledge Revision Plan - One Year Plan
January - February - March - April - May - June
Sunday, February 6, 2022
Industrial Engineering Projects - Formulation and Economic Feasibility Analysis
Cost Reduction Projects
Some projects can suggest expenditures to improve the efficiency of the machines by adding additional items or by improving certain characteristics of the machine. These projects are cost reduction projects and they need to analyzed using engineering economic analysis.
Industrial engineers are expected to come out with number of cost reduction projects using technologies that claim the cost reduction potential as well as ideas that have cost reduction potential. Lean systems is an idea having cost reduction potential. Lean systems designate certain items as non-value added activities and challenge people to reduce these non-value added activities and reduce cost. Cost of quality or profits of quality system improvement is one such idea. According to it, by redesigning the quality management system, companies can increase profits.
http://nraomtr.blogspot.com/2011/12/cost-reduction-projects.html
Income Expansion Projects
Projects which increase production capacity and hence give more revenues come under income expansion projects.
Tuesday, February 1, 2022
Industrial Engineering Economic Analysis - Important Component of Industrial Engineering
Learners for the Industrial Engineering ONLINE Course by Industrial Engineering Knowledge Center
Objectives of Industrial Engineering
June - Industrial Engineering Knowledge Revision Plan
Tuesday, January 18, 2022
Engineering Economics - Bulletin - Information Board
Do you believe this. Operating light rail is costlier than rapid bus system?
The True Operating Costs Between Bus and Light Rail
Bus vs. Light Rail: Which Is Cheaper to Operate?
Christopher MacKechnie
Updated December 27, 2018
https://www.thoughtco.com/bus-and-light-rail-costs-2798852
24.2.2014
An Economical Operation Analysis Optimization Model for Heavy Equipment
Selection
A. Jrade, N. Markiz, and N. Albelwi E W
World Academy of Science, Engineering and Technology
Vol:61 2012-01-20
http://waset.org/publications/6378/an-economical-operation-analysis-optimization-model-for-heavy-equipment-selection
10-2-2013
Use of Economic Analysis to evaluate design alternatives
http://www.wbdg.org/design/use_analysis.php
The Role of Engineering Economics in the Evaluation of
Investment Projects by the Bank of Amazon-Brazil
2012 conference paper
http://repositorium.sdum.uminho.pt/bitstream/1822/21163/1/icieom2012_submission_283.pdf
2012
Software Engineering Economics
by Barry W. Boem
http://userfs.cec.wustl.edu/~cse528/Boehm-SE-Economics.pdf
Updated on 18.1.2022, 19 January 2019
First posted on 24 March 2014
Friday, November 12, 2021
Engineering Economics - Knowledge Book
Updated on 12.11.2021, 8 May 2019, 21 April 2012
All links working
Saturday, April 20, 2019
Production Economics: Evaluating Costs of Operations in Manufacturing and Service Industries 2018 Book Information
Production Economics: Evaluating Costs of Operations in Manufacturing and Service Industries
1st Edition
Anoop Desai, Aashi Mital
CRC Press
Published June 11, 2018
Reference - 530 Pages - 81 B/W Illustrations
Summary
This book serves a unique purpose within the world of engineering. It covers the economics of modern manufacturing and focuses on examining the techniques and methods from a cost perspective.
It can be used by both students and professionals alike. The book is useful to students in industrial engineering and mechanical engineering programs as a primary textbook for engineering economy, production costing, and related courses. It can also be used by MBA students specializing in production management and finance.
Specific topics of coverage include the computation of direct and indirect cost for manufacturing operations, including a variety of overhead operations in such an environment. Costing of manufacturing methods such as casting, forging, turning, milling, and welding is addressed along with inventory analysis.
The book also includes fundamental concepts such as cash flow analysis, present and future worth analysis, and rate of return analysis. Related topics such as equipment replacement, comparison of alternatives, depreciation, buy versus make decisions, interest factors, and equivalence are covered in detail as well.
Key Features:
Addresses the costing of manufacturing operations through a step-by-step problem solving approach.
Includes traditional engineering topics such as cash flow analysis, present worth, future worth analysis, replacement analysis, equivalence, and depreciation are addressed in depth as well.
Offers a variety of solved examples that can be used to develop a thorough understanding of the underlying concept.
Provides a number of practice problems at the end of each chapter.
Presents a large number of figures and tables in almost every chapter, to assist in visualizing the concept and apply it successfully.
Production Economics: Evaluating Costs of Operations in Manufacturing and Service Industries focuses on rigorous problem solving. Each topic is presented succinctly along with numerous solved examples, along with a large number of end-of-chapter practice problems where applicable.
Table of Contents
Interest Factors, Equivalence, Present Worth, Annualized Equivalent Worth, and Future worth Analysis. Cost Estimation. Materials Costing. Process Costing. Overhead Expenses. Estimation of Capital Cost and Operating Cost. Costing of Material Handling Operations. Inventory Analysis and Costing. Administrative and Facilities Costs. Establishing the Selling Price. Comparison of Alternatives. Breakeven and Benefit Cost Analysis. Depreciation. Replacement Analysis. The Make v/s Buy Decision. Vendor Selection and Vendor Cost Verification. Influence of Assembly Automation and Market Factors on Production Economics. Appendix.
Author(s) Bio
Dr. Anoop Desai is currently an Associate Professor of Mechanical Engineering at Georgia Southern University. He received his PhD in Industrial Engineering from the University of Cincinnati in 2006. His areas of research interest include Product Development, Design for Manufacturing, Six Sigma and Quality control and Engineering Economic analysis.
Dr. Desai is the author of "Product Development: A Structured Approach to Consumer Product Design, Development and Manufacture", "Fundamentals of Work measurement: What Every Engineer Should Know" and "Global Sustainability and Innovation (Edited)."
Dr. Desai is also the author of twenty-five journal papers mainly focusing on the area of Design for X, environment conscious design and manufacturing and the economics of production processes. He is one of Elsevier Science's most cited authors.
Aashi Mital holds a Master of the Arts in American History and minor in Classical Archaeology through the University of Cincinnati. She is the CEO and founder of Pivotal Solutions Consulting. Her innovative methodologies involving resource utilization, strategic initiatives and impact growth have caused several businesses to reinvent their approaches in today’s multi-disciplinary environment. Being amongst the most sought out consultants in the region, she is known for her ability to generate and execute strategies to improve operations and processes, critical thinking, problem solving and a deeper understanding of multifaceted problems.
She has a strong background in resource management, community development and marketing. All of which have contributed to publications covering a sundry of interdisciplinary topics, such as geopolitical patterns and historical forecasting, business and engineering economics, human productivity and sustainability.
Some of her latest works include Product Development: A Structured Approach to Consumer Product Development, Design and Manufacture, as well as chapters "Changes in US Manufacturing Worker Productivity with Working Hours" and "A comparison of US Manufacturing Workers’ Productivity with Similar Workers in Selected Developed and Fast Developing Economies" found within Human Work Productivity: A Global Perspective. She has also worked with various publications, such as International Journal of Industrial Engineering: Theory, Applications and Practice (IJIETAP), the Organization of American Historians (OAH) and Archaeological Magazine.
Ms. Mital is a recipient of the Craig Waff Researcher’s Award, CPA Innovative STEM Educator’s Award and MHS Preservation Award.
https://www.crcpress.com/Production-Economics-Evaluating-Costs-of-Operations-in-Manufacturing-and/Desai-Mital/p/book/9781138033269
Friday, April 12, 2019
The Engineer as an Economist - Industrial Engineer - Henry Towne and F.W. Taylor
The paper that initiated works management and industrial engineering that has focus on understanding and reducing cost of production,
To insure the best results, the organization of productive labor must be directed and controlled by persons having not only good executive ability, and possessing the practical familiarity of a mechanic or engineer with the goods produced and the processes employed, but having also, and equally, a practical knowledge of how to observe, record, analyze and compare essential facts in relation to wages, supplies, expense accounts, and all else that enters into or affects the economy of production and the cost of the product.
Three types of knowledge and ability indicated
- good executive ability,
- the practical familiarity of a mechanic or engineer with the goods produced and the processes employed,
- a practical knowledge of how to observe, record, analyze and compare essential facts in relation to wages, supplies, expense accounts, and all else that enters into or affects the economy of production and the cost of the product.
Full Paper
