1) The project cost information for an office building project with a BOQ of 6000 sqm is provided. Direct material cost is 18 million LE, direct machine cost is 6 million LE, and direct labor cost is 6 million LE. Site overhead is 3 million LE and office overhead is 1.5 million LE.
2) Based on this, the cost breakdown structure shows the total project cost is 33 million LE, with a total profit of 7.5 million LE (21.7% of total).
3) An inflation rate of 15% annually is provided to estimate costs for 2019 and 2020.
A short presentation on Project Controls in a Mining Environment. There are some obvious errors, as time to compile was a bit limited, but you should get the general idea.
Ss 06 cost engineering management training- nov 2017 - moustafa part ii ch 1...Moustafa Ismail Abu Dief
This document appears to be a lecture on cost engineering and cost estimation for discrete part manufacturing. It discusses various philosophies for discrete part manufacturing like computer-aided process planning, concurrent engineering, group technology, just-in-time manufacturing, and lean manufacturing. It also discusses concepts like materials requirements planning, supply chain management, total quality management, and total cost management. The document provides information on direct and indirect costs for discrete part manufacturing. It presents a cost estimating guide form and provides an example cost estimate. Finally, it discusses break even analysis and different cost bases and break even points.
Resource Optimization in Mivan Construction ProjectIRJET Journal
This document discusses resource optimization techniques for construction projects, specifically related to mivan construction. It begins with introducing the importance of optimizing resources like materials, manpower, and equipment in construction projects to reduce costs. It then describes conducting a case study of a construction site project comprising 5 buildings to study resource management practices for mivan construction. Data was collected on project details, building descriptions, construction procedures, and estimated resources like labor, materials, and equipment. Optimization approaches and techniques were then analyzed and applied to optimize the allocation and usage of resources like conducting assignment modeling for labor distribution and studying factors that impact material and equipment costs. The aim was to understand and apply optimization concepts to effectively manage resources on the construction site project.
This document provides information on environmental management accounting and material flow cost accounting (MFCA). It discusses how MFCA can be used internally by companies to identify costs associated with waste and inefficiencies. Examples are given of several Japanese companies that implemented MFCA and were able to reduce waste, lower costs, and increase productivity and profit as a result. The document also compares traditional cost accounting statements to those developed using MFCA.
IRJET- Implementing Time and Cost Optimization in Commercial Building using P...IRJET Journal
This document discusses implementing time and cost optimization techniques in commercial building projects using Microsoft Project. It describes crashing activities by adding resources like workers and equipment to reduce durations, and using slack time and alternative materials to lower costs. The goal is to complete projects on time or under budget by analyzing the tradeoff between time and cost when crashing critical paths or using different building materials. Manual and software-based methods are evaluated for optimizing the schedule and minimizing total project duration and costs.
OPTIMIZATION OF PRODUCTION COST IN CONSTRUCTION PROJECTIRJET Journal
This document summarizes a study on optimizing production costs for a construction company in India called Eagle Infra India Ltd. The study used lean construction strategies like value stream mapping, 5S methodology, and Pareto analysis to identify waste and reduce costs and time for various structural castings. Key findings include:
1. Implementing these lean strategies reduced waste like defects, waiting time, transportation, inventory excess, and overproduction for structural castings.
2. Production costs and times were reduced for each structural casting tested. The highest savings were Rs. 1,00,517 in costs and 5 days in production time.
3. Overall, the study found that using lean techniques can reduce a construction company's production
Identification of Bottleneck and Reducing Cycle Time of an Industrial Oven by...IRJET Journal
The document describes a study conducted to reduce the cycle time of an industrial oven manufacturing process. Currently, the assembly of an industrial oven takes 2041 minutes (34.01 hours) over 4.3 working days. The study uses project management techniques like work breakdown structure, activity relationship table, precedence network diagram, critical path method, and crashing to identify bottlenecks and reduce cycle time. Applying critical path method and crashing critical activities, the study finds that assembly time can be reduced to 1694 minutes (28.23 hours), a savings of 347 minutes (5.78 hours) or a 17% reduction in cycle time.
A short presentation on Project Controls in a Mining Environment. There are some obvious errors, as time to compile was a bit limited, but you should get the general idea.
Ss 06 cost engineering management training- nov 2017 - moustafa part ii ch 1...Moustafa Ismail Abu Dief
This document appears to be a lecture on cost engineering and cost estimation for discrete part manufacturing. It discusses various philosophies for discrete part manufacturing like computer-aided process planning, concurrent engineering, group technology, just-in-time manufacturing, and lean manufacturing. It also discusses concepts like materials requirements planning, supply chain management, total quality management, and total cost management. The document provides information on direct and indirect costs for discrete part manufacturing. It presents a cost estimating guide form and provides an example cost estimate. Finally, it discusses break even analysis and different cost bases and break even points.
Resource Optimization in Mivan Construction ProjectIRJET Journal
This document discusses resource optimization techniques for construction projects, specifically related to mivan construction. It begins with introducing the importance of optimizing resources like materials, manpower, and equipment in construction projects to reduce costs. It then describes conducting a case study of a construction site project comprising 5 buildings to study resource management practices for mivan construction. Data was collected on project details, building descriptions, construction procedures, and estimated resources like labor, materials, and equipment. Optimization approaches and techniques were then analyzed and applied to optimize the allocation and usage of resources like conducting assignment modeling for labor distribution and studying factors that impact material and equipment costs. The aim was to understand and apply optimization concepts to effectively manage resources on the construction site project.
This document provides information on environmental management accounting and material flow cost accounting (MFCA). It discusses how MFCA can be used internally by companies to identify costs associated with waste and inefficiencies. Examples are given of several Japanese companies that implemented MFCA and were able to reduce waste, lower costs, and increase productivity and profit as a result. The document also compares traditional cost accounting statements to those developed using MFCA.
IRJET- Implementing Time and Cost Optimization in Commercial Building using P...IRJET Journal
This document discusses implementing time and cost optimization techniques in commercial building projects using Microsoft Project. It describes crashing activities by adding resources like workers and equipment to reduce durations, and using slack time and alternative materials to lower costs. The goal is to complete projects on time or under budget by analyzing the tradeoff between time and cost when crashing critical paths or using different building materials. Manual and software-based methods are evaluated for optimizing the schedule and minimizing total project duration and costs.
OPTIMIZATION OF PRODUCTION COST IN CONSTRUCTION PROJECTIRJET Journal
This document summarizes a study on optimizing production costs for a construction company in India called Eagle Infra India Ltd. The study used lean construction strategies like value stream mapping, 5S methodology, and Pareto analysis to identify waste and reduce costs and time for various structural castings. Key findings include:
1. Implementing these lean strategies reduced waste like defects, waiting time, transportation, inventory excess, and overproduction for structural castings.
2. Production costs and times were reduced for each structural casting tested. The highest savings were Rs. 1,00,517 in costs and 5 days in production time.
3. Overall, the study found that using lean techniques can reduce a construction company's production
Identification of Bottleneck and Reducing Cycle Time of an Industrial Oven by...IRJET Journal
The document describes a study conducted to reduce the cycle time of an industrial oven manufacturing process. Currently, the assembly of an industrial oven takes 2041 minutes (34.01 hours) over 4.3 working days. The study uses project management techniques like work breakdown structure, activity relationship table, precedence network diagram, critical path method, and crashing to identify bottlenecks and reduce cycle time. Applying critical path method and crashing critical activities, the study finds that assembly time can be reduced to 1694 minutes (28.23 hours), a savings of 347 minutes (5.78 hours) or a 17% reduction in cycle time.
Chapter 3 JIT, Value Added and Waste .docxadkinspaige22
Chapter 3: JIT, Value Added and Waste
Elimination
Part1- What is Just-In-Time (JIT)?
Continuous Improvement is a basic and important concept in modern manufacturing,
and it is a cornerstone of JIT and TOM. However, it is a very general and open-
ended concept. Another important element of the modern manufacturing and service
operations is the concept of VALUE_ADDED
Just-in-time (JIT) is an approach to manufacturing which aims to increase “value-
add” activity and eliminate waste by providing the environment to simplify and
perfect processes within an organization. Just-in-time manufacturing means
producing the necessary items, in the required quantities at the appropriate time.
JIT can deliver significant improvements in operating efficiency. Having raw
materials arrive at a manufacturing facility, just in time to enter the production
process allows an organization to minimize the amount of inventory it must hold
and store. It also minimizes the potential cost of obsolescence, which can arise due
to change in product specifications, customer demands, etc..
Putting the JIT concept into practice means a reversal of traditional thinking with
regard to managing a manufacturing process flow. In conventional production
processes, units are transported to the next production stage as soon as they are
ready. In JIT, each stage in the production process looks back to the previous stage
to pick up the exact number of units needed. Product (and services) are pulled
through the process driven by demand from customers, rather than the traditional
approach where product and services are pushed forward based on planned
schedules.
A)-The benefits associated with Just In Time Manufacturing
While the prevailing view of JIT is that of an inventory control system, it is much
more. JIT is an operational philosophy which can deliver a broad range of benefits.
Examples of the benefits associated with implementing a JIT process:
– The production of high quality, high reliability products that customers want,
resulting is satisfied and loyal customers.
– The delivery of products which match the rate that the customers require.
– Optimized manufacturing process lead-times.
– Minimized and eliminated waste of labor, material and equipment.
– All activity having a defined purpose towards meeting customer needs.
– Continuous reductions in process and equipment set-up and change-over times.
– The elimination of unnecessary inventory and improved inventory management
and control.
– Continuous reductions in supplier lead times.
– Ongoing significant improvements in organizational productivity and efficiency.
B)-IS JIT applicable only to Manufacturing?
The concepts of Just In Time are applied to all value creating organizations. While
JIT originated in .
Telecom product cost models development approachParcus Group
Presentation to Pacific Islands Telecom Association (PITA) AGM and Conference in Tahiti 2016 on telecom businesses cases and product cost models development approach.
The document discusses the importance of project cost management. It notes that projects historically have poor track records for meeting cost goals, with average cost overruns found in various CHAOS studies from 1995 to 2003. Proper project cost management, including processes like resource planning, cost estimating, cost budgeting and cost control, can help reduce cost overruns. The basic principles of cost management, such as distinguishing different types of costs and using techniques like activity-based costing and reserves, are also covered.
IRJET- Value Analysis Aimed at Cost Reduction in Wooden Bed ManufacturingIRJET Journal
This document discusses applying value analysis techniques to reduce the cost of manufacturing wooden beds. It analyzes the cost of different components of a traditional wooden bed. Through brainstorming, it proposes design changes like adding slots to materials to optimize usage. A function-cost analysis estimates the proposed design could lower total manufacturing costs by 18.44%. Implementing value analysis ideas like modifying material thickness based on strength needs could save ₹415 per bed. This level of cost reduction enhances competitiveness without compromising quality, reliability or appearance.
Byron Pang is an Industrial Engineering professional with over 15 years of experience in various roles. He is currently an IE Manager at Infineon Technologies where he leads a team and is responsible for maintaining manufacturing KPIs and driving productivity improvements. Some of his past accomplishments include receiving various achievement awards and improving OEE, setup times, and cycle times through projects applying IE tools and methodologies.
This document discusses approaches to construction cost estimation. It describes the major cost categories for a construction project, including capital costs like construction, land acquisition, and financing, as well as operation and maintenance costs over the facility's lifetime. It outlines several approaches to cost estimation, including using production functions relating inputs like labor and materials to outputs, statistical cost functions, estimating costs from a bill of quantities by assigning unit costs to project components, and allocating joint costs from existing accounts. An example is given comparing resource requirements and costs for different types of energy projects.
Cost engineering is the application of scientific principles and techniques to problems related to project cost estimation, cost control, planning, and scheduling with the objective of achieving the lowest cost. The document discusses key aspects of cost engineering including: cost structuring into direct, indirect, fixed and variable costs; classifying estimates; ensuring estimate accuracy; and developing cost estimates using elements like materials, labor, equipment, overhead and profit. It provides examples of cost breakdown structures, summary sheets for pricing, and unit price schedules to develop total project bids.
Value Engineering is a technique for determining the manufacturing requirements of a
product/service; it is concerned with its evaluation and finally the selection of less costly
conditions. VE is a process for achieving the optimal result in a way that quality, safety, reliability
and convertibility of every monetary unit are improved.
Here theory of Value Engineering along with case study of UTM is presented.
The document provides an introduction to engineering economics. It discusses how engineering deals with using materials and natural forces for the economic benefit of humanity. It also covers concepts like the need for engineering due to resource and energy crises, how successful companies meet customer wants and needs economically, and the physical and economic environments that engineers must consider. Key aspects of engineering economics like cost concepts, supply and demand, efficiency, and elementary economic analysis are introduced.
Poorankumar Shahani has over 20 years of experience in areas like operations management, project management, supply chain management, quality assurance, and new product development. He is currently the Plant Operations Head and Project Head at Suniti Electricals in Pune, where he has worked since 2011. Prior to that, he worked at Bajaj Auto Ltd. for over 15 years. He has extensive experience leading projects, improving productivity and efficiency, reducing costs, and ensuring quality standards.
The document describes an improvement project for a company's tender management process. The process was controlled by the Project Management Office (PMO) and had high quality standards but also room for improvement. The project team analyzed waste and delays, then improved the process by implementing a content management system, Scrum framework, training, and new roles. This reduced lead time and costs while maintaining quality standards. The improvements generated an estimated annual savings of 136,000 Euros.
IIRJET-Cost Control Techniques for Construction ProjectIRJET Journal
The document discusses cost control techniques for construction projects. It describes how cost control involves reducing waste, avoiding accidents, and using alternative materials to reduce costs while maintaining quality. Specifically, it discusses replacing certain materials like bricks and concrete with cheaper alternatives. It also discusses avoiding "reactive accidents" by enforcing safety protocols and "proactive accidents" through training and safety planning. The objective is to control costs for a 548-unit residential building project in India and reduce costs by 3.5% from the original budget through these techniques.
Poorankumar Shahani has over 25 years of experience in areas like R&D, projects, supply chain management, and quality assurance. He is currently the Plant Operations Head at Suniti Electricals in Pune, where he manages manufacturing operations and new projects. Previously, he has worked with Bajaj Auto and Suniti Electricals in various roles related to R&D, materials procurement, and quality control. He aims to improve efficiency, reduce costs and defects, and handle new product development projects on schedule and budget.
On February 23, the National Academy of Agricultural Sciences (NAAS), the National Academy of Agricultural Research Management (NAARM), and International Food Policy Research Institute (IFPRI) organized a “Workshop on PME Indicators and Implementation Strategy” at the NAAS offices in New Delhi. The aim of the one-day event was to discuss the draft of a Project Monitoring and Evaluation (PME) Manual.
This document provides an overview of engineering economics and its application in process engineering. It discusses key concepts like the time value of money, methods for quantifying project profitability like net present value, payback period, return on investment, and internal rate of return. It also covers typical accounting tools used like income statements and cash flow statements. The document explains how to estimate capital costs using methods like the turnover ratio and Lang's factor as well as operating costs considering factors like labor, materials, and utilities. It emphasizes the need to balance accuracy and cost when developing cost estimates.
IRJET- Evaluation of Rework Factors Affecting Cost and Schedule Performance i...IRJET Journal
This document discusses rework factors that affect cost and schedule performance in construction projects. It aims to identify the main rework factors and calculate total rework costs. The research involved a questionnaire survey to analyze data from infrastructure projects. Four main rework factor groups were identified: design-related, client-related, contractor-related, and external environment factors. Analytical hierarchy process was used to rank the factors by importance. Total rework cost was calculated probabilistically based on factor weightings and costs of critical construction activities. The findings provide insight into how to reduce rework costs by addressing the most influential factors.
Asia NOC Bridges Business-wide Performance Objectives and KPIs through an Adv...Yokogawa1
Misalignment and conflicting performance objectives between management and front line operators is the root cause of a lot of profit erosion. Businesses need systematic ways to align senior management objectives and operating KPIs. This presentation will demonstrate how a National Oil Company in Asia utilized data analytics and KPI trees with drill-down capabilities to systematically align performance objectives and KPIs in its gas processing division to achieve profit driven operations. The presentation will also highlight how first principles digital twins can be incorporated to serve as a soft sensor to deliver further accuracy and rigour.
Cost management involves planning and controlling a project's budget to help ensure it is completed within approved funding. It includes processes like resource planning, cost estimating, cost budgeting, and cost control. Resource planning determines what resources like people, equipment, and materials are needed. Cost estimating develops cost approximations for project activities. Cost budgeting allocates overall estimates to specific work items to establish a cost baseline. Cost control monitors performance against the baseline and manages any changes to keep costs on track. Maintaining and improving productivity is important for cost management and completing projects successfully within budget.
- Damon Chan has 15 years of experience in manufacturing leadership roles, currently serving as VP of Manufacturing for a company with $130M revenue and 5000 employees that produces drones, RC cars, and Marvel toys.
- He has a proven track record of implementing lean manufacturing programs that reduce costs and improve productivity, quality, and financial performance.
- Chan has extensive experience managing operations, project management, cost control, quality management, and client relationships for toy and consumer product companies.
Triple/S Dynamics Presentation - Belt Conveyor vs. Horizontal Motion ConveyorGrand View Media
The purchase of capital equipment is a complex decision that requires considering total cost of ownership, which includes both upfront and ongoing costs. This includes factors like installation, maintenance, energy use, downtime, and disposal. Calculating metrics like return on investment and overall equipment effectiveness can help evaluate how the equipment will impact total costs and profits over its lifetime. Material handling equipment choices, like belt conveyors versus horizontal differential motion conveyors, require analyzing the projected costs and benefits over 10 years to determine which provides the best return.
Applications of artificial Intelligence in Mechanical Engineering.pdfAtif Razi
Historically, mechanical engineering has relied heavily on human expertise and empirical methods to solve complex problems. With the introduction of computer-aided design (CAD) and finite element analysis (FEA), the field took its first steps towards digitization. These tools allowed engineers to simulate and analyze mechanical systems with greater accuracy and efficiency. However, the sheer volume of data generated by modern engineering systems and the increasing complexity of these systems have necessitated more advanced analytical tools, paving the way for AI.
AI offers the capability to process vast amounts of data, identify patterns, and make predictions with a level of speed and accuracy unattainable by traditional methods. This has profound implications for mechanical engineering, enabling more efficient design processes, predictive maintenance strategies, and optimized manufacturing operations. AI-driven tools can learn from historical data, adapt to new information, and continuously improve their performance, making them invaluable in tackling the multifaceted challenges of modern mechanical engineering.
Chapter 3 JIT, Value Added and Waste .docxadkinspaige22
Chapter 3: JIT, Value Added and Waste
Elimination
Part1- What is Just-In-Time (JIT)?
Continuous Improvement is a basic and important concept in modern manufacturing,
and it is a cornerstone of JIT and TOM. However, it is a very general and open-
ended concept. Another important element of the modern manufacturing and service
operations is the concept of VALUE_ADDED
Just-in-time (JIT) is an approach to manufacturing which aims to increase “value-
add” activity and eliminate waste by providing the environment to simplify and
perfect processes within an organization. Just-in-time manufacturing means
producing the necessary items, in the required quantities at the appropriate time.
JIT can deliver significant improvements in operating efficiency. Having raw
materials arrive at a manufacturing facility, just in time to enter the production
process allows an organization to minimize the amount of inventory it must hold
and store. It also minimizes the potential cost of obsolescence, which can arise due
to change in product specifications, customer demands, etc..
Putting the JIT concept into practice means a reversal of traditional thinking with
regard to managing a manufacturing process flow. In conventional production
processes, units are transported to the next production stage as soon as they are
ready. In JIT, each stage in the production process looks back to the previous stage
to pick up the exact number of units needed. Product (and services) are pulled
through the process driven by demand from customers, rather than the traditional
approach where product and services are pushed forward based on planned
schedules.
A)-The benefits associated with Just In Time Manufacturing
While the prevailing view of JIT is that of an inventory control system, it is much
more. JIT is an operational philosophy which can deliver a broad range of benefits.
Examples of the benefits associated with implementing a JIT process:
– The production of high quality, high reliability products that customers want,
resulting is satisfied and loyal customers.
– The delivery of products which match the rate that the customers require.
– Optimized manufacturing process lead-times.
– Minimized and eliminated waste of labor, material and equipment.
– All activity having a defined purpose towards meeting customer needs.
– Continuous reductions in process and equipment set-up and change-over times.
– The elimination of unnecessary inventory and improved inventory management
and control.
– Continuous reductions in supplier lead times.
– Ongoing significant improvements in organizational productivity and efficiency.
B)-IS JIT applicable only to Manufacturing?
The concepts of Just In Time are applied to all value creating organizations. While
JIT originated in .
Telecom product cost models development approachParcus Group
Presentation to Pacific Islands Telecom Association (PITA) AGM and Conference in Tahiti 2016 on telecom businesses cases and product cost models development approach.
The document discusses the importance of project cost management. It notes that projects historically have poor track records for meeting cost goals, with average cost overruns found in various CHAOS studies from 1995 to 2003. Proper project cost management, including processes like resource planning, cost estimating, cost budgeting and cost control, can help reduce cost overruns. The basic principles of cost management, such as distinguishing different types of costs and using techniques like activity-based costing and reserves, are also covered.
IRJET- Value Analysis Aimed at Cost Reduction in Wooden Bed ManufacturingIRJET Journal
This document discusses applying value analysis techniques to reduce the cost of manufacturing wooden beds. It analyzes the cost of different components of a traditional wooden bed. Through brainstorming, it proposes design changes like adding slots to materials to optimize usage. A function-cost analysis estimates the proposed design could lower total manufacturing costs by 18.44%. Implementing value analysis ideas like modifying material thickness based on strength needs could save ₹415 per bed. This level of cost reduction enhances competitiveness without compromising quality, reliability or appearance.
Byron Pang is an Industrial Engineering professional with over 15 years of experience in various roles. He is currently an IE Manager at Infineon Technologies where he leads a team and is responsible for maintaining manufacturing KPIs and driving productivity improvements. Some of his past accomplishments include receiving various achievement awards and improving OEE, setup times, and cycle times through projects applying IE tools and methodologies.
This document discusses approaches to construction cost estimation. It describes the major cost categories for a construction project, including capital costs like construction, land acquisition, and financing, as well as operation and maintenance costs over the facility's lifetime. It outlines several approaches to cost estimation, including using production functions relating inputs like labor and materials to outputs, statistical cost functions, estimating costs from a bill of quantities by assigning unit costs to project components, and allocating joint costs from existing accounts. An example is given comparing resource requirements and costs for different types of energy projects.
Cost engineering is the application of scientific principles and techniques to problems related to project cost estimation, cost control, planning, and scheduling with the objective of achieving the lowest cost. The document discusses key aspects of cost engineering including: cost structuring into direct, indirect, fixed and variable costs; classifying estimates; ensuring estimate accuracy; and developing cost estimates using elements like materials, labor, equipment, overhead and profit. It provides examples of cost breakdown structures, summary sheets for pricing, and unit price schedules to develop total project bids.
Value Engineering is a technique for determining the manufacturing requirements of a
product/service; it is concerned with its evaluation and finally the selection of less costly
conditions. VE is a process for achieving the optimal result in a way that quality, safety, reliability
and convertibility of every monetary unit are improved.
Here theory of Value Engineering along with case study of UTM is presented.
The document provides an introduction to engineering economics. It discusses how engineering deals with using materials and natural forces for the economic benefit of humanity. It also covers concepts like the need for engineering due to resource and energy crises, how successful companies meet customer wants and needs economically, and the physical and economic environments that engineers must consider. Key aspects of engineering economics like cost concepts, supply and demand, efficiency, and elementary economic analysis are introduced.
Poorankumar Shahani has over 20 years of experience in areas like operations management, project management, supply chain management, quality assurance, and new product development. He is currently the Plant Operations Head and Project Head at Suniti Electricals in Pune, where he has worked since 2011. Prior to that, he worked at Bajaj Auto Ltd. for over 15 years. He has extensive experience leading projects, improving productivity and efficiency, reducing costs, and ensuring quality standards.
The document describes an improvement project for a company's tender management process. The process was controlled by the Project Management Office (PMO) and had high quality standards but also room for improvement. The project team analyzed waste and delays, then improved the process by implementing a content management system, Scrum framework, training, and new roles. This reduced lead time and costs while maintaining quality standards. The improvements generated an estimated annual savings of 136,000 Euros.
IIRJET-Cost Control Techniques for Construction ProjectIRJET Journal
The document discusses cost control techniques for construction projects. It describes how cost control involves reducing waste, avoiding accidents, and using alternative materials to reduce costs while maintaining quality. Specifically, it discusses replacing certain materials like bricks and concrete with cheaper alternatives. It also discusses avoiding "reactive accidents" by enforcing safety protocols and "proactive accidents" through training and safety planning. The objective is to control costs for a 548-unit residential building project in India and reduce costs by 3.5% from the original budget through these techniques.
Poorankumar Shahani has over 25 years of experience in areas like R&D, projects, supply chain management, and quality assurance. He is currently the Plant Operations Head at Suniti Electricals in Pune, where he manages manufacturing operations and new projects. Previously, he has worked with Bajaj Auto and Suniti Electricals in various roles related to R&D, materials procurement, and quality control. He aims to improve efficiency, reduce costs and defects, and handle new product development projects on schedule and budget.
On February 23, the National Academy of Agricultural Sciences (NAAS), the National Academy of Agricultural Research Management (NAARM), and International Food Policy Research Institute (IFPRI) organized a “Workshop on PME Indicators and Implementation Strategy” at the NAAS offices in New Delhi. The aim of the one-day event was to discuss the draft of a Project Monitoring and Evaluation (PME) Manual.
This document provides an overview of engineering economics and its application in process engineering. It discusses key concepts like the time value of money, methods for quantifying project profitability like net present value, payback period, return on investment, and internal rate of return. It also covers typical accounting tools used like income statements and cash flow statements. The document explains how to estimate capital costs using methods like the turnover ratio and Lang's factor as well as operating costs considering factors like labor, materials, and utilities. It emphasizes the need to balance accuracy and cost when developing cost estimates.
IRJET- Evaluation of Rework Factors Affecting Cost and Schedule Performance i...IRJET Journal
This document discusses rework factors that affect cost and schedule performance in construction projects. It aims to identify the main rework factors and calculate total rework costs. The research involved a questionnaire survey to analyze data from infrastructure projects. Four main rework factor groups were identified: design-related, client-related, contractor-related, and external environment factors. Analytical hierarchy process was used to rank the factors by importance. Total rework cost was calculated probabilistically based on factor weightings and costs of critical construction activities. The findings provide insight into how to reduce rework costs by addressing the most influential factors.
Asia NOC Bridges Business-wide Performance Objectives and KPIs through an Adv...Yokogawa1
Misalignment and conflicting performance objectives between management and front line operators is the root cause of a lot of profit erosion. Businesses need systematic ways to align senior management objectives and operating KPIs. This presentation will demonstrate how a National Oil Company in Asia utilized data analytics and KPI trees with drill-down capabilities to systematically align performance objectives and KPIs in its gas processing division to achieve profit driven operations. The presentation will also highlight how first principles digital twins can be incorporated to serve as a soft sensor to deliver further accuracy and rigour.
Cost management involves planning and controlling a project's budget to help ensure it is completed within approved funding. It includes processes like resource planning, cost estimating, cost budgeting, and cost control. Resource planning determines what resources like people, equipment, and materials are needed. Cost estimating develops cost approximations for project activities. Cost budgeting allocates overall estimates to specific work items to establish a cost baseline. Cost control monitors performance against the baseline and manages any changes to keep costs on track. Maintaining and improving productivity is important for cost management and completing projects successfully within budget.
- Damon Chan has 15 years of experience in manufacturing leadership roles, currently serving as VP of Manufacturing for a company with $130M revenue and 5000 employees that produces drones, RC cars, and Marvel toys.
- He has a proven track record of implementing lean manufacturing programs that reduce costs and improve productivity, quality, and financial performance.
- Chan has extensive experience managing operations, project management, cost control, quality management, and client relationships for toy and consumer product companies.
Triple/S Dynamics Presentation - Belt Conveyor vs. Horizontal Motion ConveyorGrand View Media
The purchase of capital equipment is a complex decision that requires considering total cost of ownership, which includes both upfront and ongoing costs. This includes factors like installation, maintenance, energy use, downtime, and disposal. Calculating metrics like return on investment and overall equipment effectiveness can help evaluate how the equipment will impact total costs and profits over its lifetime. Material handling equipment choices, like belt conveyors versus horizontal differential motion conveyors, require analyzing the projected costs and benefits over 10 years to determine which provides the best return.
Similar to _VIP_Cost Management -20-10-2018.pdf (20)
Applications of artificial Intelligence in Mechanical Engineering.pdfAtif Razi
Historically, mechanical engineering has relied heavily on human expertise and empirical methods to solve complex problems. With the introduction of computer-aided design (CAD) and finite element analysis (FEA), the field took its first steps towards digitization. These tools allowed engineers to simulate and analyze mechanical systems with greater accuracy and efficiency. However, the sheer volume of data generated by modern engineering systems and the increasing complexity of these systems have necessitated more advanced analytical tools, paving the way for AI.
AI offers the capability to process vast amounts of data, identify patterns, and make predictions with a level of speed and accuracy unattainable by traditional methods. This has profound implications for mechanical engineering, enabling more efficient design processes, predictive maintenance strategies, and optimized manufacturing operations. AI-driven tools can learn from historical data, adapt to new information, and continuously improve their performance, making them invaluable in tackling the multifaceted challenges of modern mechanical engineering.
Open Channel Flow: fluid flow with a free surfaceIndrajeet sahu
Open Channel Flow: This topic focuses on fluid flow with a free surface, such as in rivers, canals, and drainage ditches. Key concepts include the classification of flow types (steady vs. unsteady, uniform vs. non-uniform), hydraulic radius, flow resistance, Manning's equation, critical flow conditions, and energy and momentum principles. It also covers flow measurement techniques, gradually varied flow analysis, and the design of open channels. Understanding these principles is vital for effective water resource management and engineering applications.
Mechatronics is a multidisciplinary field that refers to the skill sets needed in the contemporary, advanced automated manufacturing industry. At the intersection of mechanics, electronics, and computing, mechatronics specialists create simpler, smarter systems. Mechatronics is an essential foundation for the expected growth in automation and manufacturing.
Mechatronics deals with robotics, control systems, and electro-mechanical systems.
Software Engineering and Project Management - Software Testing + Agile Method...Prakhyath Rai
Software Testing: A Strategic Approach to Software Testing, Strategic Issues, Test Strategies for Conventional Software, Test Strategies for Object -Oriented Software, Validation Testing, System Testing, The Art of Debugging.
Agile Methodology: Before Agile – Waterfall, Agile Development.
Height and depth gauge linear metrology.pdfq30122000
Height gauges may also be used to measure the height of an object by using the underside of the scriber as the datum. The datum may be permanently fixed or the height gauge may have provision to adjust the scale, this is done by sliding the scale vertically along the body of the height gauge by turning a fine feed screw at the top of the gauge; then with the scriber set to the same level as the base, the scale can be matched to it. This adjustment allows different scribers or probes to be used, as well as adjusting for any errors in a damaged or resharpened probe.
Discover the latest insights on Data Driven Maintenance with our comprehensive webinar presentation. Learn about traditional maintenance challenges, the right approach to utilizing data, and the benefits of adopting a Data Driven Maintenance strategy. Explore real-world examples, industry best practices, and innovative solutions like FMECA and the D3M model. This presentation, led by expert Jules Oudmans, is essential for asset owners looking to optimize their maintenance processes and leverage digital technologies for improved efficiency and performance. Download now to stay ahead in the evolving maintenance landscape.
Supermarket Management System Project Report.pdfKamal Acharya
Supermarket management is a stand-alone J2EE using Eclipse Juno program.
This project contains all the necessary required information about maintaining
the supermarket billing system.
The core idea of this project to minimize the paper work and centralize the
data. Here all the communication is taken in secure manner. That is, in this
application the information will be stored in client itself. For further security the
data base is stored in the back-end oracle and so no intruders can access it.
4. Mosca vol I -Fisica-Tipler-5ta-Edicion-Vol-1.pdf
_VIP_Cost Management -20-10-2018.pdf
1. PM
باهلل إال توفيقي وما
Cost Management
(Planning , Control & Improvements)
Dr. Attia Gomaa
Industrial Engineering Professor & Consultant
Mechanical Eng. Department – Shoubra Faculty of Eng. - Benha University
& Engineering and Science Services - American University in Cairo
Facebook: Attia Gomaa & Group: Project Management - Dr Attia Gomaa
October 2018
2. PM 2
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Course Contents:
1. Cost Management
2. Cost Estimation
3. Cost Analysis
4. Cash Flow Analysis
5. Financial Analysis
6. Project Cost Analysis
7. Project Cost Control
8. Case Studies
Cost Management
(Planning , Control & Improvements)
3. PM 3
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Rules of the Course
This is an Open Discussion Course:
Team Approach
Remember … You can’t do it alone!
Let us be a teamwork.
– Share Knowledge
– Share Experiences
– Share Best Practices
– Share Questions
–
المعرفة تبادل
–
الخبرات تبادل
–
الجيدة التجارب تبادل
–
األسئلة تبادل
4. PM 4
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project Triple Constraints:
5. PM 5
Cost Management Best Practice - Dr. Attia Gomaa - 2018
1) Material
2) Machine
3) Manpower
4) Method
5) Money
(Cost)
Resources Analysis (5 M’s):
Project Constraints:
1. Scope of Work (Specs)
2. Quality (Service Quality)
3. Time (Schedule)
4. Cost (Budget)
6. PM 6
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cost Management
(1)
Resource
Planning
(2)
Cost
Estimation
(3)
Cost
Budgeting
(4)
Cost
Control
Cost Planning
(5)
Cost
Forecasting
2017
2018
2019
7. PM 7
Cost Management Best Practice - Dr. Attia Gomaa - 2018
• Resource planning: determining what resources and
quantities of them should be used.
• Cost estimating: developing an estimate of the costs and
resources needed to complete a project.
• Cost budgeting: allocating the overall cost estimate to
individual work items to establish a baseline for measuring
performance.
• Cost control: controlling changes to the project budget.
COST MANAGEMENT - Definitions
8. PM 8
Cost Management Best Practice - Dr. Attia Gomaa - 2018
(1) Resource Planning (2) Cost Estimating
1. Work breakdown structure (WBS)
2. Main activities
3. Resource allocation
4. Resource limits (constraints)
5. Resource requirements
6. Cost rates
7. Cost estimation
8. Cost analysis
(3) Cost Budgeting (4) Cost Control
9. Cost baseline
10.Cash in / cash out
11.Budget plan
12.Budget limits (constraints)
13.Planned performance
14.Actual performance
15.Change requests
16.Performance reports
Source: PMBOK Standard
Cost Management
9. PM 9
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Discuss briefly the resource estimation sheet for the following item:
• Project scope of Work: Office Building (250 m2 * 5 floors)
• Main Item: Plain Concerete
• Activity: Concrete Casting For Foundation (250 kg/cm2)
• BOQ: 300 m3 Duration: 3 day
Resource Estimation:
• Resource Allocation (Standard Information):
Materials Rates:
Cement = 0.4 ton/m3 700 LE/ton
Sand = 0.5 m3/m3 30 LE/m3
Gravel = 0.8 m3/m3 90 LE/m3
Water = 160 liter/m3 0.1 LE/liter
Labor Rates:
Concrete Crew = 5 man/day 80 LE/man-day
Carpenter Crew = 3 man/day 90 LE/man-day
Equipment Rates:
Mixer =1 Eq./day 250 LE/day
Loader =1 Eq./day 200 LE/day
Margin Factor = Overhead + Profit = 50% Direct Cost
10. PM 10
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Activity
ID
Activity
Description
BOQ
(units)
Dur.
Day
Resource
Type
Resource
Name
Resource
Units
Resource
Quantity
Resource
Price/unit
Item Cost
LE
C250
Concrete
Casting
For
Foundation
(strength
250
kg/cm2)
by
Concrete
Mixer
300
m3
3
day
Materials
Cement
0.4
ton/m3
120
ton
700
LE/ton 84000
114900
Sand
0.5
m3/m3
150
m3
30
LE/m3
4500
Gravel
0.8
m3/m3
240
m3
90
LE/m3
21600
Water
160
liter/m3
48000
liter
0.1
LE/liter
4800
Labor Concrete
Crew
5
man/day
15
man-day
80
LE/man-d
1200
2010
Carpenter
Crew
3
man/day
9
man-day
90
LE/man-d
810
Equipment
Mixer
1
Eq./day
3
Eq.-day
250
LE/day 750
1350
Loader
1
Eq./day
3
Eq.-day
200
LE/day 600
Total Direct Cost = 118,260
Margin Factor = Overhead + Profit = 50% Direct Cost 59,130
Total Income (LE) 177,390
Unit Price (LE/m3) 591
Project scope of Work: Office Building (250 m2 * 5 floors) Main Item: Foundation Activity
Resource Estimation Sheet:
11. PM 11
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Activity
ID
Activity
Description
BOQ
(units)
Dur.
Day
Resource
Type
Resource
Name
Resource
Units
Resource
Quantity
Resource
Price/unit
Item Cost
LE
C250
Concrete
Casting
For
Foundation
(strength
250
kg/cm2)
by
Concrete
Mixer
300
m3
3
day
Materials
Cement
0.4
ton/m3
120
ton
700
LE/ton 84000
114900
Sand
0.5
m3/m3
150
m3
30
LE/m3
4500
Gravel
0.8
m3/m3
240
m3
90
LE/m3
21600
Water
160
liter/m3
48000
liter
0.1
LE/liter
4800
Labor Concrete
Crew
5
man/day
15
man-day
80
LE/man-d
1200
2010
Carpenter
Crew
3
man/day
9
man-day
90
LE/man-d
810
Equipment
Mixer
1
Eq./day
3
Eq.-day
250
LE/day 750
1350
Loader
1
Eq./day
3
Eq.-day
200
LE/day 600
Total Direct Cost = 118,260
Margin Factor = Overhead + Profit = 50% Direct Cost 59,130
Total Income (LE) 177,390
Unit Price (LE/m3) 591
Project scope of Work: Office Building (250 m2 * 5 floors) Main Item: Foundation Activity
Resource Estimation Sheet:
ID Item Name
Cost Duration
Responsibility
C250 Plain Concrete
118260 LE 3 Days
Eng. Attia Gomaa
12. PM 12
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cost
Tracking
Schedule
Responsibility
Quality
QA/QC
WBS
Work Breakdown Structure (WBS)
For example; MIS Project for Resource Planning
20% 27% 53%
100%
37%
100%
41% 22%
Project
Main Items
13. PM 13
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Work Breakdown Structure (WBS)
Requirements
Design
Resource Module
Cost Module
Resource Module
Cost Module
For example; MIS Project for Resource Planning
14. PM 14
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project: Computer Lab 30 Users
Work Breakdown Structure (WBS)
Client: AUC
WBS - LAB
Electrical
Works
Mechanical
Works
Civil Works
IT Works
Finishing
15. PM 15
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cost Breakdown Structure
Unit Profit
- (-%)
Labour
Cost
- (-%)
Machine
Cost
- (- %)
Office
Overhead
- (-%)
Overhead
- (-%)
Technical Cost
- (-%)
Unit Price
- $/unit
Unit Cost
- (100%)
Critical
Resources
Technical Direct Cost
- (-%)
Materials
Cost
- (- %)
Technical
Overhead
- (-%)
Base
16. PM 16
Cost Management Best Practice - Dr. Attia Gomaa - 2018
The cost classification matrix for a project (First year 2016) is as follows:
Unit Price = 300 $/unit (Market Price) Planned Capacity = 100,000 units/year
Case Study:
Cost Elements
Total Cost
1,000,000 $
Direct
Costs
Raw Materials 10
Technical labors 5
Equipment & Tools 10
Overheads
Technical Overhead 2
Office Overhead 1
Total 1,000,000 $ 28
Based on this information, discuss briefly the Cost Breakdown Structure
17. PM 17
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cost Breakdown Structure
Total Profit
2 (7.1 %)
Labour
Cost
10 (35.7%)
Machine
Cost
5 (17.8 %)
Office
Overhead
1 (3.5%)
Overhead
3 (10.7%)
Factory Cost
27 (96.4%)
Total Price
30 M$
Total Cost
28 (100%)
Critical
Resources
Technical Direct Cost
25 (89.2%)
Materials
Cost
10 (35.7 %)
Technical
Overhead
2 (7.1 %)
Base
Annual Level
Planned Capacity
= 100,000
units/year
18. PM 18
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cost Breakdown Structure
Unit Profit
20 (7.1 %)
Labour
Cost
100 (35.7%)
Machine
Cost
50 (17.8 %)
Office
Overhead
10 (3.5%)
Overhead
30 (10.7%)
Factory Cost
270 (96.4%)
Unit Price
300 $/unit
Unit Cost
280 (100%)
Critical
Resources
Technical Direct Cost
250 (89.2%)
Materials
Cost
100 (35.7 %)
Technical
Overhead
20 (7.1 %)
Base
Unit Level
Planned Capacity
= 100,000
units/year
Price Policy:
Target Price = 300 $/unit
Worst Price = 270 $/unit
19. PM 19
Cost Management Best Practice - Dr. Attia Gomaa - 2018
• Planned Cost
• Actual Cost
• Variance Analysis
Each Indicator:
• Value ($)
• Ratio (%)
• Factor
Profit
Ratio
Value
Added
Margin
Factor
Markup
Factor
Breakeven
Point
Cost Analysis
Main Indicators:
- Profit = Price - Cost Total Productivity
- Value Added Factor = Price / Mat. Cost Material Productivity
- Margin Factor = Price / Direct Cost Direct Resource Productivity
- Markup Factor = Price /Factory Cost Factory Productivity
- Breakeven Point = F / (p-v) Margin of Safety
20. PM 20
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Price
TC
Profit
Total
Cost
Value
Added
1.5 to 2.5
2.0
External
Resource
Cost
Margin
Factor
1.3 to 1.7
1.5
Direct
Cost
Markup
Factor
1.2 to 1.3
1.25
Factory
Cost
Or
Site Cost
Contribution
Margin
1.4 to 1.6
1.5
Variable
Cost
Cost Analysis
21. PM 21
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Price Structure Analysis: (Cost KPIs - Objectives)
Contract Price
Margin = Price - Direct
Direct Cost
Total Cost = Direct Cost + Overhead Profit
Value Added = Price - Outsource
Outsource Cost
or rough cut estimation by using the value added
or rough cut estimation by using the margin factor
or rough cut estimation by using the markup factor
Markup (Cost Plus)
= Office O/h + Profit
Labor
Mat. Jobsite OH
Subs
Equip
Factory Cost = Direct + Tech. O/h
For same scope of work
For different scope of work
For Cost Plus Contract
22. PM 22
Cost Management Best Practice - Dr. Attia Gomaa - 2018
The project cost information is as follows:
• Project : Office Building 10 Floors
• Bill of Quantity (BOQ): 6000 m2
----------------
• Direct Material Cost: 18,000,000 LE
• Direct Machine Cost: 6,000,000 LE
• Direct Labor Cost: 6,000,000 LE
----------------
• Site Overhead 3,000,000 LE
• Office Overhead: 1,500,000 LE
• Unit Price: 7,000 LE/m2
Based on this information, discuss briefly the Cost Breakdown Structure
Case Study:
Actual Cost
(2018)
Inflation Rate
15% Annually
Cost
Estimation
(2019 , 2020)
23. PM 23
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cost Breakdown Structure
Total Profit
7.5 (21.7%)
Labour
Cost
6 (17.4%)
Machine
Cost
6 (17.4 %)
Office
Overhead
1.5 (4.3%)
Overhead
4.5 (13.0%)
Site Cost
33 (95.6%)
Total Price
42 M.LE
Total Cost
34.5 (100%)
Critical
Resources
Technical Direct Cost
30 (86.9%)
Materials
Cost
18 (52.2 %)
Site
Overhead
3 (8.6%)
Base
Project Level
Actual Cost
(2018)
24. PM 24
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cost Breakdown Structure
Unit Profit
1250 (21.7%)
Labour Cost
1000 (17.4%)
Machine Cost
1000 (17.4 %)
Office
Overhead
250 (4.3%)
Overhead
750 (13.0%)
Site Cost
5500 (95.6%)
Unit Price
7000 LE/unit
Unit Cost
5750 (100%)
Critical
Resources
Technical Direct Cost
5000 (86.9%)
Materials Cost
3000(52.2 %)
Site
Overhead
500 (8.6%)
Base
Unit Level
Actual Cost
(2018)
Inflation Rate
15%
25. PM 25
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cost Breakdown Structure
Unit Profit
1437 (21.7%)
Labour Cost
1150 (17.4%)
Machine Cost
1150 (17.4 %)
Office
Overhead
287 (4.3%)
Overhead
862 (13.0%)
Site Cost
6325 (95.6%)
Unit Price
8050 LE/unit
Unit Cost
6613 (100%)
Critical
Resources
Technical Direct Cost
5750 (86.9%)
Materials Cost
3450 (52.2 %)
Site
Overhead
575 (8.6%)
Base
Unit Level
Cost
Estimation
(2019)
Inflation Rate
15%
26. PM 26
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Price Structure Analysis: (Cost KPIs - Objectives)
Contract Price = 7000 LE/m2
Margin =7000-5000= 2000 LE
Direct Cost =5000
Total Cost = Direct Cost + Overhead = 5750
Profit
1250 LE
Value Added = 7000-3000= 4000 LE
Outsource Cost
3000
or rough cut estimation by using the value added
or rough cut estimation by using the margin factor
or rough cut estimation by using the markup factor
Markup (Cost Plus)
=7000-5500= 1500 LE
Labor
Mat. Jobsite OH
Subs
Equip
Site Cost = Direct + Tech. O/h = 5500
For same scope of work
For different scope of work
For Cost Plus Contract
Actual Cost
(2018)
27. PM 27
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Price Structure Analysis: (Cost KPIs - Objectives)
Contract Price = 7000 LE/m2
Margin Factor =7000/5000= 1.4
(1 Direct : 1.4 Income)
Direct Cost =5000
Total Cost = Direct Cost + Overhead = 5750
Profit
21.7%
Value Added Factor = 7000/3000= 2.33
Material Productivity = (1 Material : 2.33 Income)
Outsource Cost
3000
or rough cut estimation by using the value added
or rough cut estimation by using the margin factor
or rough cut estimation by using the markup factor
Markup Factor
=7000/5500= 1.27
(Cost Plus)
Labor
Mat. Jobsite OH
Subs
Equip
Site Cost = Direct + Tech. O/h = 5500
For same scope of work
For different scope of work
For Cost Plus Contract
Actual Cost
(2018)
28. PM 28
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Unit Profit
-- (21.7%)
Labour Cost
--- (17.4%)
Machine Cost
-- (17.4 %)
Office
Overhead
-- (4.3%)
Overhead
-- (13.0%)
Site Cost
-- (95.6%)
Unit Price
--- LE/unit
Unit Cost
--- (100%)
Critical
Resources
Technical Direct Cost
-- (86.9%)
Materials Cost
-- (52.2 %)
Site
Overhead
-- (8.6%)
Base
Given:
Raw Material Cost
= 4000 LE/unit
Cost Estimation #1:
29. PM 29
Cost Management Best Practice - Dr. Attia Gomaa - 2018
The project cost information is as follows:
• Project : Office Building 10 Floors
• Bill of Quantity (BOQ): 6000 m2
• Direct Material Cost: 18 M.LE
• Direct Machine Cost: 6 M.LE
• Direct Labor Cost: 6 M.LE
----------------
• Technical Overhead 10% Direct Cost
• Office Overhead: 5% Direct Cost
• Profit Ratio 22% Cost
Total Cost = Direct + Overhead = 30*1.15 = 34.5 M.LE
Price = Total Cost + Profit = 34.5 * 1.22 = 42 M.LE
Cost Estimation #2:
30. PM 30
Cost Management Best Practice - Dr. Attia Gomaa - 2018
The project cost information is as follows:
• Project : Office Building 10 Floors
• Bill of Quantity (BOQ): 600*10 = 6000 m2
----------------
• Direct Material Cost: 18 M.LE
• Direct Machine Cost: 6 M.LE
• Direct Labor Cost: 6 M.LE
----------------
• Margin Factor 40 % Direct
(Margin Factor = Overhead + Profit = Price - Direct)
Price = Direct Cost * Margin Factor = 30 * 1.4 = 42 M.LE
Cost Estimation #3:
31. PM 31
Cost Management Best Practice - Dr. Attia Gomaa - 2018
The project cost information is as follows:
• Project : Office Building 10 Floors
• Bill of Quantity (BOQ): 6000 m2
----------------
• Direct Material Cost: 18 M.LE
----------------
• Value Added Factor 2.333
(Value Added Factor = Price / Material)
Price = Material Cost * Value Added Factor = 18*2.333 = 42 M.LE
Cost Estimation #4:
32. PM 32
Cost Management Best Practice - Dr. Attia Gomaa - 2018
The project cost information is as follows:
• Project : Office Building One Floor
• Bill of Quantity (BOQ): 300 m2
----------------
• Direct Material Cost: 600,000 LE
• Direct Machine Cost: 100,000 LE
• Direct Labor Cost: 300,000 LE
----------------
• Site Overhead 100,000 LE
• Office Overhead: 50,000 LE
• Unit Price: 5,000 LE/m2
Based on this information, discuss briefly the Cost Breakdown Structure
Example: Actual Cost
33. PM 33
Cost Management Best Practice - Dr. Attia Gomaa - 2018
The project cost information is as follows:
• Item (Main Activity): Plain Concrete
• Bill of Quantity (BOQ) 300 m3
• Direct Material Cost 120,000 LE
• Direct Machine Cost 54,000 LE
• Direct Labor Cost 24,000 LE
• Factory Overhead 33,000 LE
• Office Overhead 16,500 LE
• Unit Price 1,100 LE/m3
Based on this information, discuss briefly the Cost Breakdown Structure
Example:
34. PM 34
Cost Management Best Practice - Dr. Attia Gomaa - 2018
The project cost information is as follows:
• Item (Main Activity): Power Cable
• Bill of Quantity (BOQ) 1000 m
• Direct Material Cost 1,500,000
• Direct Machines 500,000
• Direct Labors 400,000
• Tech. Overhead 15% Direct Cost
• Office Overhead 5% Direct Cost
• Profit 20% Total Cost
Brainstorming:
Based on this information, discuss briefly the Cost Breakdown Structure
35. PM 35
Cost Management Best Practice - Dr. Attia Gomaa - 2018
The project cost information is as follows: (Main Contractor)
• Project : Gas Pipe Line
• Bill of Quantity (BOQ) 100 Km
• Direct Material Cost 1,000,000 $
• Direct Sub-Contactor $ 400,000
• Direct Engineers $ 100,000
-----------
• Tech. Overhead 7% Total Cost
• Office Overhead 3% Total Cost
• Profit 20% Total Cost
Brainstorming:
Based on this information, discuss briefly the Cost Breakdown Structure
36. PM 36
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cost Breakdown Structure
Total Profit
0.333 (20%)
Engineers
Cost
0.1 (6 %)
Subcontractor
Cost
0.4 (24 %)
Office
Overhead
0.050 (3%)
Overhead
0.167 (10%)
Site Cost
1.617(97%)
Total Price
2.0 M.$
Total Cost
1.667 (100%)
Critical
Resources
Technical Direct Cost
1.5 (90%)
Materials
Cost
1.0 (60 %)
Site
Overhead
0.117(7%)
Base
Project Level
37. PM 37
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cost Breakdown Structure
Total Profit
333 (20%)
Engineers
Cost
100 (6%)
Subcontractor
Cost
400 (24 %)
Office
Overhead
50 (3%)
Overhead
167 (10%)
Site Cost
1,617(97%)
Total Price
20,000 $/km
Total Cost
1,667 (100%)
Critical
Resources
Technical Direct Cost
1,500 (90%)
Materials
Cost
1,000 (60 %)
Site
Overhead
117 (7%)
Base
Unit Level
39. PM 39
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Total costs = fixed costs + variable costs
– Total fixed cost (TFC) is the cost of fixed inputs, inputs that do not
vary with output (e.g., rent)
– Total variable cost (TVC) is the cost of all inputs that vary with output
(e.g., wages, raw materials)
Breakeven Quantity of Sales:
BE
Total Fixed Costs
Q =
Price Var.Cost per unit
40. PM 40
Cost Management Best Practice - Dr. Attia Gomaa - 2018
• Determines at what level cost and revenue are in equilibrium
• Break-even point
– Obtained directly by mathematical calculations
– Usually presented in graphic form known as break-even chart
Break-Even Analysis:
Breakeven quantity =
(Total Fixed Cost) / (unit price – unit variable cost)
Fixed cost
Variable cost
Total cost line
Total revenue line
Profit
Breakeven point
Total cost = Total revenue
Profit = 0
Production Volume (units/period)
Cost
Loss
Cost-Volume-Profit Chart
41. PM 41
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Breakeven - Margin of Safety
42. PM 42
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Planned Capacity 60 units
Annual Fixed Cost 300
Annual Variable Cost 360
Revenue $ 900
Example:
Planned Capacity = 60 units
Unit variable cost = 360/60 = 6 $/unit
Unit Price = 900/60 = 15
BEP = F / (p-v) = 300 / (15-6) = 33.3 = 34
Margin of safety = 60 – 34 = 26 units
43. PM 43
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Example:
Demand (units) 500
Unit price ($) 50
Unit Variable cost ($) 15
Fixed Cost ($) 10,000
Based on this information, discuss the profit & breakeven analysis
Profit = Revenue – Total Cost
= 500*50 – (10000 + 500*15) =
BEP:
Q = F / (p-v) = 10000 / (50-15) = 285.7
Q % = 285.7 / 500 = 57.14 %
Safety Margin = 100 – 57.14 = 42.86% > 30% (Excellent)
44. PM 44
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Scenario Analysis
Worst-Case
Scenario
Most-Likely-
Case Scenario
Best-Case
Scenario
Demand (units) 400 500 600
Unit price ($) 48 50 53
Unit Variable cost ($) 17 15 12
Fixed Cost ($) 11,000 10,000 8,000
Based on this information, discuss the profit & breakeven analysis
Total Cost
Revenue
Profit ($)
Profit (%)
BEQ (units)
BEQ (%)
Safety Margin (%)
Comment
45. PM 45
Cost Management Best Practice - Dr. Attia Gomaa - 2018
A company is building a workshop for producing metal windows. There is a
considerable degree of uncertainty in cost terms.
• Annual fixed costs = $ 300,000 to 500,000
• Variable cost per unit = $ 500 to 600
• Selling price per unit = $ 1,000 to 1,200
• Annual Production = 900 to 1,100 units
Based on this information, discuss the profit & breakeven analysis
Worst-Case
Scenario
Most-Likely-
Case Scenario
Best-Case
Scenario
Demand (units) 900 1000 1100
Unit price ($) 1000 1100 1200
Unit Variable cost ($) 600 550 500
Fixed Cost ($) 500,000 400,000 300,000
Example:
46. PM 46
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Year 1 2 3 4 5
Income:
Sales Quantity, units 4000 5000 6000 7000 8000
Unit Price; $ 3000 3250 3500 3750 4000
Variable Cost ($1000):
Production Cost 1000 1250 1500 1750 2000
Technical Overhead 500 625 750 875 1000
Fixed Cost ($1000):
Depreciation 5000 5000 5000 5000 5000
Maintenance (3% of investment) 900 900 900 900 900
Insurance (1% of investment) 300 300 300 300 300
Production Cost 1000 1250 1500 1750 2000
Technical Overhead 500 625 750 875 1000
Office Overhead 500 625 750 875 1000
1) Economical Analysis (Unit Cost , Profit Ratio for each period , …)
2) Risk Analysis (Breakeven Analysis for each period )
3) Risk Analysis (Sensitivity Analysis for Market Price Change ± 10%)
4) Risk Analysis (Sensitivity Analysis for variable Cost Change ± 10%)
Based on this information, discuss the following:
47. PM 47
Cost Management Best Practice - Dr. Attia Gomaa - 2018
A manager is trying to decide between two
machines (A or B) to produce a certain product:
• Alt. 1: Machine A:
– Fixed Costs:
• Annual Depreciation: $120,000
• Annual Maintenance: $20,000
– Variable costs:
• Material: $2.25 / unit
• Labor: $6.25 / unit
• Alt. 2: Machine B:
– Fixed Costs:
• Annual Depreciation : $165,000
• Annual Maintenance: $35,000
– Variable costs:
• Material: $2.25 / unit
• Labor: $2.25 / unit
Based on this information, select the best machine.
Example: • Alt. 1: Machine A:
– Fixed Costs: 140,000
– Variable costs: 8.5 /unit
– TC(A) = 140,000 + 8.5 Q
• Alt. 2: Machine B:
– Fixed Costs: 200,000
– Variable costs: 4.5 /unit
– TC(B) = 200,000 + 4.5 Q
At BEQ:
TC(A) = TC(B)
140,000 + 8.5 Q = 200,000 + 4.5 Q
Q = 15,000
<15000 15000 >15000
A A,B B
B
A
15000
BEP
48. PM 48
Cost Management Best Practice - Dr. Attia Gomaa - 2018
EGR 312 - 22 48
Two alternatives exist for a machining process.
Alternative 1 has an initial cost of $10,000 and a salvage value of
$1000 after 5 years. Alternative 1 also has a variable cost of $1/unit
of product produced and an annual maintenance of $1000.
Alternative 2 has an initial cost of $15,000 and a salvage value of
$2,000 after 7 years. Alternative 2 also has a variable cost of
$0.80/unit of product produced and an annual maintenance cost of
$1200.
Example:
Based on this information, select the best machine.
49. PM 49
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Total Cost
الكلية التكاليف
Capital Cost
اإلستثمار التكليف
ية
Running Cost
التشغيل التكاليف
ية
CAPEX and OPEX Analysis
50. PM 50
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Assets:
The economic resources owned by a business that
can be used for future operations
األصول
:
Fixed Assets: ثابته أصول
• Land
• Building
• Equipment
Current Assets: متداولة أصول
• Cash
• Accounts Receivable
• Inventories
• Raw Materials
• Supplies
Intellectual Assets:
ملموسة غير أصول
)
فكرية
(
• Brand , Know-how
51. PM 51
Cost Management Best Practice - Dr. Attia Gomaa - 2018
CAPEX and OPEX Analysis
CAPEX Ratio + OPEX Ratio = 100%
Capital Expenses = CAPEX Ratio (Best CAPEX ≥ 25%)
= Fixed Asset Depreciation / Annual Total cost
Operating Expenses = OPEX Ratio (Best OPEX ≤ 75%)
= 100 – CAPEX
52. PM 52
Cost Management Best Practice - Dr. Attia Gomaa - 2018
The cost classification matrix for a project (First year 2018) is as follows:
Product / Project: xxxxxxx
Unit Price= -- LE/unit Planned Capacity = --- units/year
Product Cost Analysis: (Information)
Cost Classification Matrix
Cost Elements
Annual Fixed
Cost
Annual Variable
Cost
Direct Costs
1) Materials
2) Technical labors
3) Equipment & Tools
4) Sub-Contractor
Overheads
5) Technical Overhead Costs
6) Office Overhead Costs
Cost Analysis?
Cost
Account
53. PM 53
Cost Management Best Practice - Dr. Attia Gomaa - 2018
The cost classification matrix for a project (First year 2016) is as follows:
Unit Price= 300 $/unit (Market Price) Planned Capacity = 100,000 units/year
Cost Elements
Annual Fixed Cost
1,000,000 $
Annual Variable Cost
1,000,000 $
Direct
Costs
Raw Materials - 10
Technical labors 3 2
Equipment & Tools 9 1
Overheads
Technical Overhead 1 1
Office Overhead 1 -
Based on this information, discuss the following:
a) Cost breakdown structure
b) Break even ratio & Margin of safety
c) Sensitivity analysis for material cost and unit price change (±20%)
Case Study:
54. PM 54
Cost Management Best Practice - Dr. Attia Gomaa - 2018
The cost classification matrix for a project (First year 2016) is as follows:
Unit Price= 300 $/unit (Market Price) Planned Capacity = 100,000 units/year
Cost Elements
Annual Fixed
Cost
1,000,000 $
Annual Variable
Cost
1,000,000 $
Total Cost
1,000,000 $
Direct
Costs
Raw Materials - 10 10
Technical labors 3 2 5
Equipment &
Tools
9 1 10
Overhe
ads
Technical
Overhead
1 1 2
Office Overhead 1 - 1
Total 1,000,000 $ 14 14 28
Unit Cost = 28,000,000 / 100,000 = 280 $/unit
Unit Profit = 300 – 280 = 20 $/unit (7.14%) << 20% “Low Profit Ratio”
55. PM 55
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cost Breakdown Structure
Total Profit
2 (7.1 %)
Labour
Cost
10 (35.7%)
Machine
Cost
5 (17.8 %)
Office
Overhead
1 (3.5%)
Overhead
3 (10.7%)
Factory Cost
27 (96.4%)
Total Price
30 M$
Total Cost
28 (100%)
Critical
Resources
Technical Direct Cost
25 (89.2%)
Materials
Cost
10 (35.7 %)
Technical
Overhead
2 (7.1 %)
Base
Annual Level
Planned Capacity
= 100,000
units/year
56. PM 56
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cost Breakdown Structure
Unit Profit
20 (7.1 %)
Labour
Cost
100 (35.7%)
Machine
Cost
50 (17.8 %)
Office
Overhead
10 (3.5%)
Overhead
30 (10.7%)
Factory Cost
270 (96.4%)
Unit Price
300 $/unit
Unit Cost
280 (100%)
Critical
Resources
Technical Direct Cost
250 (89.2%)
Materials
Cost
100 (35.7 %)
Technical
Overhead
20 (7.1 %)
Base
Unit Level
Planned Capacity
= 100,000
units/year
Price Policy:
Target Price = 300 $/unit
Worst Price = 270 $/unit
57. PM 57
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Total Fixed Cost = 14,000,000 $ Unit Variable Cost = 140 $/unit Unit Price= 300 $/unit
Breakeven %
BEP = Total Fixed Cost / (Unit Price - Unit Variable Cost)
= 14,000,000 / (300 – 140) = 87,500 unit
Planned Capacity = 100,000 units/year
BE % = 87,500 / 100,000 = 87.5%
Margin of Safety = 12.5% <<< 30 % (Very Low High Risk)
Corrective Action: Try to reduce fixed cost by 20%
Fixed cost
Variable cost
Total cost line
Total revenue line
Profit
Breakeven point
87,500 units
Production Volume (units/period)
Cost
Loss
Cost-Volume-Profit Chart
58. PM 58
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Sensitivity analysis for material cost and unit price change (±20%)
Deviation -20% -10%
0%
Base
10% 20%
Unit price -40 -10 20 50 80
Unit Material 40 30 20 10 0
Profit Matrix ($/unit)
Scenario Profit $/unit
Pessimistic 80
Most Likely 20
Optimistic -40
59. PM 59
Cost Management Best Practice - Dr. Attia Gomaa - 2018
The cost classification matrix for a project (First year 2016) is as follows:
Unit Price= 300 $/unit (Market Price) Planned Capacity = 100,000 units/year
Cost Elements
Annual Fixed Cost
1,000,000 $
Annual Variable Cost
1,000,000 $
Direct
Costs
Raw Materials - 10
Technical labors 2 3
Equipment & Tools 6 4
Overheads
Technical Overhead 1 1
Office Overhead 1 -
Based on this information, discuss the following:
a) Cost breakdown structure
b) Break even ratio & Margin of safety
c) Sensitivity analysis for material cost and unit price change (±20%)
Case Study:
60. PM 60
Cost Management Best Practice - Dr. Attia Gomaa - 2018
The cost classification matrix for a project (First year 2016) is as follows:
Unit Price= 300 $/unit (Market Price) Planned Capacity = 100,000 units/year
Cost Elements
Annual Fixed
Cost
1,000,000 $
Annual Variable
Cost
1,000,000 $
Total Cost
1,000,000 $
Direct
Costs
Raw Materials - 10 10
Technical labors 2 3 5
Equipment &
Tools
6 4 10
Overhe
ads
Technical
Overhead
1 1 2
Office Overhead 1 - 1
Total 1,000,000 $ 10 18 28
Unit Cost = 28,000,000 / 100,000 = 280 $/unit
Unit Profit = 300 – 280 = 20 $/unit (7.14%) << 20% “Low Profit Ratio”
61. PM 61
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cost Breakdown Structure
Total Profit
2 (7.1 %)
Labour
Cost
10 (35.7%)
Machine
Cost
5 (17.8 %)
Office
Overhead
1 (3.5%)
Overhead
3 (10.7%)
Factory Cost
27 (96.4%)
Total Price
30 M$
Total Cost
28 (100%)
Critical
Resources
Technical Direct Cost
25 (89.2%)
Materials
Cost
10 (35.7 %)
Technical
Overhead
2 (7.1 %)
Base
Annual Level
Planned Capacity
= 100,000
units/year
62. PM 62
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cost Breakdown Structure
Unit Profit
20 (7.1 %)
Labour
Cost
100 (35.7%)
Machine
Cost
50 (17.8 %)
Office
Overhead
10 (3.5%)
Overhead
30 (10.7%)
Factory Cost
270 (96.4%)
Unit Price
300 $/unit
Unit Cost
280 (100%)
Critical
Resources
Technical Direct Cost
250 (89.2%)
Materials
Cost
100 (35.7 %)
Technical
Overhead
20 (7.1 %)
Base
Unit Level
Planned Capacity
= 100,000
units/year
Price Policy:
Target Price = 300 $/unit
Worst Price = 270 $/unit
63. PM 63
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Total Fixed Cost = 10,000,000 $ Unit Variable Cost = 180 $/unit Unit Price= 300 $/unit
Breakeven %
BEP = Total Fixed Cost / (Unit Price - Unit Variable Cost)
= 10,000,000 / (300 – 180) = 83,333 unit
Planned Capacity = 100,000 units/year
BE % = 83,333 / 100,000 = 83.3%
Margin of Safety = 16.7% <<< 30 % (Very Low High Risk)
Corrective Action: Try to reduce fixed cost by 20%
Fixed cost
Variable cost
Total cost line
Total revenue line
Profit
Breakeven point
83,333 units
Production Volume (units/period)
Cost
Loss
Cost-Volume-Profit Chart
64. PM 64
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Sensitivity analysis for material cost and unit price change (±20%)
Deviation -20% -10%
0%
Base
10% 20%
Unit price -40 -10 20 50 80
Unit Material 40 30 20 10 0
Profit Matrix ($/unit)
Scenario Profit $/unit
Pessimistic 80
Most Likely 20
Optimistic -40
71. PM 71
Cost Management Best Practice - Dr. Attia Gomaa - 2018
The cost classification matrix for a project (First year 2018) is as follows:
Product Name : Microwave Product Code: FMW-25KC-S
Unit Price= 2000 LE/unit Planned Capacity = 20,000 units/year
Product Cost Analysis:
Cost Classification Matrix
Cost Elements Fixed Cost Variable Cost
Direct
Cost
1) Materials 20,000,000
2) Technical labors 3,000,000 2,000,000
3) Equipment & Tools 2,000,000 1,000,000
4) Sub-Contractor - -
Overhead
Cost
5) Technical Overhead Costs 1,500,000 1,500,000
6) Office Overhead Costs 1,500,000 500,000
Cost Analysis?
72. PM 72
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cash Flow Analysis
Time is money;
there is a difference between $1000 today and $1000 after 3 years.
If the interest rate (i) 10% annual; then:
$ 1000 today = $ 1331 after 3 years
How
Financial Analysis
(Long Term Project Life)
F = P (1 + i)n
P = F / (1 + i)n
73. PM 73
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cash Flow
Cash Out
Initial
Investment
Running
Cost
• Equipment
• Building
• Know-How
• … etc.
• Production
• Salaries
• Marketing
• Maintenance
• … etc.
Cash In
Sales
Revenue
Salvage
Value
• Quantity
• Price
• … etc.
• Equipment
• Building
• … etc.
Cash Flow Analysis:
CAPEX OPEX CAPEX
74. PM 74
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Year 0 1 2 3 4 … …
Equipment (Assets)
Building (Assets)
Production Cost
……
……
……
Cost Elements (1000 LE):
Sales Quantities, units
Unit Market Price
Salvage Value 4000
Cash Out Analysis
Cash In Analysis
Income (1000 LE):
Analysis Tools?
Based on this information, discuss the following:
Comments?
Salvage Value
المصروفات قائمة
:
اإلرادات قائمة
:
Source:
Technical Study
Source:
Market Study
Project:
Feasibility Study: الجدوي دراسة
:
75. PM 75
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Year 0 1 2 3 4 5 6
Equipment (Assets) 7000
Building (Assets) 3000
Production Cost 2000 2600 2600 2600 2600 2600
Salaries Cost 300 300 300 300 300 300
Marketing Cost 200 250 250 250 250 250
Overhead 100 100 100 100 100 100
Sales Quantities, units 400 550 600 600 600 600
Unit Market Price 10 10 10 10 10 10
Salvage Value 4000
Based on this information, discuss the following:
Salvage Value 4000
Cost Elements (1000 LE): Cash Out Analysis المصروفات قائمة
:
Cash In Analysis
Income (1000 LE): اإلرادات قائمة
:
Project: ABC Manufacturing Company
Feasibility Study: الجدوي دراسة
:
1) Cash Flow Analysis
2) Financial Analysis (Payback Period , IRR , … )
3) Economical Analysis (Unit Cost , Profit Ratio for each period , …)
4) Risk Analysis (Sensitivity Analysis for Market Price Change ± 10%)
76. PM 76
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Cash Flow Analysis
i = Interest rate (%) n = Life time (year)
P = Present value Value at time = 0
F= Future value Value at time > 0
A= Annual uniform value Equal value over time
• Interest rate Certain bank i% given (10%)
• Minimum Attractive Rate of Return (MARR)
• Internal Rate return Cash In/out for Certain project
P
A F
Cost
(Cash Out)
Revenue
(Cash In)
(-)
(+)
F = P (1 + i)n
0
(F , P , i , n )
78. PM 78
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project Financial Analysis:
• Payback Period (Breakeven Period); (years)
•
المال رأس إسترداد فترة
• Net Present Value (NPV) (i% given)
•
للمشروع الحالية القيمة
• Profitability Index (i% given)
•
الربجية معامل
• Internal Rate of Return (IRR) (i% Unknown)
•
الداخلي العائد معدل
)
االستثمار علي العائد معدل
(
• Minimum Attractive Rate of Return (MARR) Given
•
للمستثمر جاذب عائد معدل أقل
Most Common
79. PM 79
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Example:
Payback period = 2 + 25 / 75 = 2.333 years
Firm recovers its initial investment in 2.333 years
Year
Net Cash
Flow
Cumulative
Cash Flow
0 –100 –100
1 25 –75
2 50 –25
3 75 50
Payback Period
Definition:
The length of time until the original investment has been recouped by the project
• Ignore time value of money
• Does not consider profitability
• A shorter payback period is better
80. PM 80
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Example:
Payback Period = (2 to 3) years
= 2 + 300/350 = 2.857 years = 2 years & 11 months
$1000
$350
years
1 2 3 4
$350
$350 $350
Year 0 1 2 3 4
Cost -1000
Revenue +350 +350 +350 +350
Cumulative
Cash Flow
-1000 - 650 - 300 + 50 +400
1400
1000
Payback Period
81. PM 81
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Example:
Payback Period = (2 to 3) years
= 2 + 300/500 = 2.6 years = 2 years & 7.2 months
$1000
$300
years
1 2 3 4
$500
$400 $400
Year 0 1 2 3 4
Cost -1000
Revenue +300 +400 +500 +400
Cumulative
Cash Flow
-1000 - 700 - 300 + 200 +600
1600
1000
Payback Period
82. PM 82
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Net Present Value (NPV)
Converting Cash Flows to Present Value
End of project
Time zero:
Initial Investment = $105,000
TIME
Year 1 Year 2 Year 3
$38,463 $38,463 $38,463
= ??
= ??
= ??
Annual Savings
• A higher NPV is better
• Higher the discount rate lower the NPV
n
t t
t
i
F
P 1
0
1
NPV
83. PM 83
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Net Present Value
63
64
.
0
*
350
71
.
0
*
350
80
.
0
*
350
89
.
0
*
350
000
,
1
12
.
1
350
12
.
1
350
12
.
1
350
12
.
1
350
000
,
1 4
3
2
Investment
NPV
Interest rate
of i =12%.
-$1,000
$350
years
1 2 3 4
$350
$350 $350
Example:
P = F / (1 + i)n
؟
(NPV +) IRR > 12%
NPV (cash inflow)
Loan
or
MARR
-
0
+
IRR < i
IRR = i
IRR > i
NPV
84. PM 84
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Profitability Index:
• Allows a comparison of the costs and benefits of different projects to be
assessed and thus allow decision making to be carried out
NPV (cash inflow)
Profitability Index = ---------------------------
Initial Capital Cost
PI < 1.0 Losses Rejected (or Service projects)
PI = 1.0 Break even point short term projects
PI > 1.0 Profit Accepted )Best ≥ 1.20)
-$1,000
$350
years
1 2 3 4
$350
$350 $350
Profitability Index = 1063 / 1000 = 1.063 > 1.0 Accepted
Cost Benefits
(B/C)
B
C
Interest rate
of 12%
NPV (cash inflow)
85. PM 85
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Internal Rate of Return (IRR)
Definition:
The rate of return that yields a Net Present Value of zero.
(rate at which NPV=0)
Example:
-$1,000
$350
years
1 2 3 4
$350
$350 $350
15
.
0
0
000
,
1
)
1
(
350
)
1
(
350
)
1
(
350
1
350
4
3
2
IRR
IRR
IRR
IRR
IRR
Example:
P = F / (1 + i)n
14.96%
IRR
(i% Unknown)
86. PM 86
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Return On Investment (ROI)
Year 0 1 2 3 Total to end Year 3
Cost (Outflows) 100 30 30 35 195
Income (Inflows) 0 100 95 75 265
ROI is a ratio comparing net gains to net costs.
(measure of investment profitability)
For example:
87. PM 87
Cost Management Best Practice - Dr. Attia Gomaa - 2018
A
Year 0 1 2 3
ROI = 20%
IRR = 10%
Cost (Outflows) 10 2 2 2
Income (Inflows) 6 6 6
Net Flows -10 4 4 4
ROI & IRR
B
Year 0 1 2 3
ROI = 20%
IRR = 11%
Cost (Outflows) 10 1 1 4
Income (Inflows) 6 6 6
Net Flows -10 5 5 2
C
Year 0 1 2 3
ROI = 20%
IRR = 9%
Cost (Outflows) 10 4 1 1
Income (Inflows) 6 6 6
Net Flows -10 2 5 5
88. PM 88
Cost Management Best Practice - Dr. Attia Gomaa - 2018
You can purchase a building for $350,000. The investment will generate
$16,000 in cash flows (i.e. rent) during the first three years. At the end
of three years you will sell the building for $450,000.
What is the IRR on this investment?
0 350 000
16 000
1
16 000
1
466 000
1
1 2 3
,
,
( )
,
( )
,
( )
IRR IRR IRR
IRR = 12.96% ≥ MARR
Example:
350
16
years
1 2 3
16
450
16 P = F / (1 + i)n
Feasibility Study For Small Projects
89. PM 89
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Period Cash 2 Years 3 Years
0 200,000 75,000 60,000
1 - 75,000 60,000
2 - 75,000 60,000
3 60,000
You need to buy a new car, three alternatives are available :
Based on this information, discuss the following:
1. Cash Flow Diagram
2. Internal Rate of Return (IRR)
Example:
Feasibility Study For Small Projects
90. PM 90
Cost Management Best Practice - Dr. Attia Gomaa - 2018
2
)
1
(
75
1
75
75
200
i
i
3
2
)
1
(
60
)
1
(
60
1
60
60
200
i
i
i
75
years
1 2
0
75 75
P= 200
=
B
P= 200
=
60
years
1 2 3
0
60 60 60
C
Internal Rate of Return (IRR)
i = IRR = 13.066%
i = IRR = 13.7009%
PV (A) < PV (B) < PV (C) & IRR (B) < IRR (C)
The best choice is A then B then C
91. PM 91
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Initial Cost: $4000
Annual M&O Costs: $500
Salvage Value $500
1- Pump (A)
Initial Cost: $4500
Annual M&O Costs: $400
Salvage Value $500
Based on this information, discuss & select the best pump.
- Centrifugal Pump 1.0 HP - Interest rate is 10%
- Average Annual Costs are constant - Life 10 years
Assumptions / Calculations:
2- Pump (B)
Example:
Feasibility Study For Small Projects
92. PM 92
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Initial Cost: $4000
Annual M&O Costs: $500
Capital Maintenance
after 6 years $3000
Salvage Value $500
1- Pump (A)
Initial Cost: $5000
Annual M&O Costs: $400
Capital Maintenance
after 6 years $2000
Salvage Value $500
Based on this information, discuss & select the best pump.
- Centrifugal Pump 1.0 HP - Interest rate is 10%
- Average Annual Costs are constant - Life 10 years
Assumptions / Calculations:
2- Pump (B)
PV: A= 8,572.9 B= 8,394.0 (Ranking: B < A)
Example:
Feasibility Study For Small Projects
93. PM 93
Cost Management Best Practice - Dr. Attia Gomaa - 2018
A company needs a mobile crane for the next 10 years. Two alternatives are
available to buy or to lease the crane.
1) The buy decision includes a first cost of 800,000 LE with a market value
after 10 years of 100,000 LE and annual O&M cost of 30,000 LE.
2) To lease a similar crane, the annual charge will be 120,000 LE
including everything.
If the company earns 20% annually which alternative is to be selected.
Example:
Feasibility Study For Small Projects
By using IRR method.
94. PM 94
Cost Management Best Practice - Dr. Attia Gomaa - 2018
800
30
100
120
680
100
90
IRR = 5.1 < 20% (Rent)
or NPV(20%) = - 305.9
Net
800
30
100
120
MARR 20%
Cash Out
Cash In
0
0
IRR
97. PM 97
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project: Car Rent
Initial Investment = 500,000 LE
Project Life = 10 years Salvage Value 100,000
Annual Running Cost = 8% Initial investment
Annual Maintenance Cost = 3% Initial investment
Annual Risk and Insurance = 1% Initial investment
Annual Working Days = 200 day/year
Daily Rent Price = 700 LE/day
Feasibility Study For Small Projects
98. PM 98
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Year 0 1 2 3 4 5 6
Equipment (Assets) 7000
Building (Assets) 3000
Production Cost 2000 2600 2600 2600 2600 2600
Salaries Cost 300 300 300 300 300 300
Marketing Cost 200 250 250 250 250 250
Overhead 100 100 100 100 100 100
Sales Quantities, units 400 550 600 600 600 600
Unit Market Price 10 10 10 10 10 10
Salvage Value 4000
Based on this information, discuss the following:
Salvage Value 4000
Cost Elements (1000 LE): Cash Out Analysis المصروفات قائمة
:
Cash In Analysis
Income (1000 LE): اإلرادات قائمة
:
Project: ABC Manufacturing Company
Feasibility Study: الجدوي دراسة
:
1) Cash Flow Analysis
2) Financial Analysis (Payback Period , IRR , … )
3) Economical Analysis (Unit Cost , Profit Ratio for each period , …)
4) Risk Analysis (Sensitivity Analysis for Market Price Change ± 10%)
99. PM 99
Cost Management Best Practice - Dr. Attia Gomaa - 2018
(1000 LE):
Year 0 1 2 3 4 5 6
Total Cost 10000 2600 3250 3250 3250 3250 3250
Salvage Value 4000
Sales Revenue 4000 5500 6000 6000 6000 6000
Net Cash Flow -10000 1400 2250 2750 2750 2750 6750
Cash Flow Analysis:
Payback Period = 4 + 850 / 2750 = 4.31 years = 4 year + 4 months
Accumulative Net Cash -10000 -8600 -6350 -3600 -850 +1900 +8650
1) Financial Analysis
-15000
-10000
-5000
0
5000
10000
0 2 4 6 8
Manual
100. PM 100
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Internal Rate of Return (IRR) = 16.7% ≥ MARR
(1000 LE):
Year 0 1 2 3 4 5 6
Total Cost 10000 2600 3250 3250 3250 3250 3250
Salvage Value 4000
Sales Revenue 4000 5500 6000 6000 6000 6000
Net Cash Flow -10000 1400 2250 2750 2750 2750 6250
Cash Flow Analysis:
P = F / (1 + i)n
NPV = 0 = -10000 + {1400/(1+i)1 +2250/ (1+ i)2 +2750/ (1+ i)3
+2750/ (1+ i)4 +2750/ (1+ i)5 +6250/ (1+ i)6 }
1) Financial Analysis
Or Trail & error method:
i= 10% NPV = + 2,312.13
i= 20% NPV = - 1,154.93
i ? NPV = 0
i = IRR
= 16.7%
NPV
i %
0
Manual
F = P (1 + i)n
102. PM 102
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Sensitivity Analysis for Market Price Change ± 10%
3) Risk Analysis:
Indicator
Change in Market Price
- 10% 0% + 10%
Payback Period ; years 5.13 4.31 3.61
IRR 10.5% 16.7% 22.6%
Financial
Risk:
Economical
Risk
(Year #1):
Indicator
Change in Market Price
- 10% 0% + 10%
Unit Cost 9.0 9.0 9.0
Unit Price 9.0 10 11
Profit % 0 % 11.1% 22.2%
Year 0 1 2 3 4 5 6
Unit Market Price (Base) 10 10 10 10 10 10
+10% 11 11 11 11 11 11
-10% 9 9 9 9 9 9
103. PM 103
Cost Management Best Practice - Dr. Attia Gomaa - 2018
(1000 LE):
Year 0 1 2 3 4 5 6
Total Cost 10000 2600 3250 3250 3250 3250 3250
Salvage Value 4000
Sales Revenue 4400 6050 6600 6600 6600 6600
Net Cash Flow -10000 1800 2800 3350 3350 3350 7350
Cash Flow Analysis:
Payback Period = 3 + 2050 / 3350 = 3.61 years = 3 year + 7 months
Accumulative Net Cash -10000 -8200 -5400 -2050 1300 4650 12000
Financial Risk Change in Market Price +10% = 11 LE/unit
Internal Rate of Return (IRR) = 22.6% ≥ MARR
-15000
-10000
-5000
0
5000
10000
15000
0 1 2 3 4 5 6 7
104. PM 104
Cost Management Best Practice - Dr. Attia Gomaa - 2018
(1000 LE):
Year 0 1 2 3 4 5 6
Total Cost 10000 2600 3250 3250 3250 3250 3250
Salvage Value 4000
Sales Revenue 3600 4950 5400 5400 5400 5400
Net Cash Flow -10000 1000 1700 2150 2150 2150 6150
Cash Flow Analysis:
Payback Period = 5 + 850 /6150 = 3.13 years = 3 year + 1 month
Accumulative Net Cash -10000 -9000 -7300 -5150 -3000 -850 5300
Financial Risk Change in Market Price -10% = 9 LE/unit
-15000
-10000
-5000
0
5000
10000
15000
0 1 2 3 4 5 6 7 8
Internal Rate of Return (IRR) = 10.5% ≥ MARR
105. PM 105
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Sensitivity Analysis for Operating Cost Change ± 10%
3) Risk Analysis:
Indicator
Change in Market Price
- 10% 0% + 10%
Payback Period ; years 4.31
IRR 16.7%
Financial
Risk:
Economical
Risk
(Year #1):
Indicator
Change in Market Price
- 10% 0% + 10%
Unit Cost 9.0
Unit Price 10
Profit % 11.1%
Year 0 1 2 3 4 5 6
Operating Cost (Base) 2600 3250 3250 3250 3250 3250
+10% 2860 3575 3575 3575 3575 3575
-10% 2340 2925 2925 2925 2925 2925
106. PM 106
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Year 0 1 2 3 4 ….
Income:
Sales Quantity, units
Unit Price, $
Initial Investment ($1000):
Equipment (Assets)
Building (Assets)
Cost Elements ($1000):
Direct Production Cost
Study
Assumptions:
Project: Manufacturing Company
Feasibility Study Guidelines (Dr. Attia Gomaa)
• Annual Maintenance Cost = 3% of initial investment
• Annual Insurance = 1% of initial investment
• Salvage Value after 5 years = 50% of initial investment
• Salvage Value after 10 years = 20% of initial investment
• Technical Overhead = 50% of Direct Production Cost
• Office Overhead = 25% of Direct Production Cost
107. PM 107
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Year 0 1 2 3 4 5
Income:
Sales Quantity, units 4000 5000 6000 7000 8000
Unit Price, $ 3000 3250 3500 3750 4000
Initial Investment ($1000):
Equipment (Assets) 25000
Building (Assets) 5000
Cost Elements ($1000):
Direct Production Cost 2000 2500 3000 3500 4000
• Annual Maintenance Cost = 3% of initial investment
• Annual Insurance = 1% of initial investment
• Salvage Value after 5 years = 50% of initial investment
• Technical Overhead = 50% of Direct Production Cost
• Office Overhead = 25% of Direct Production Cost
Based on this information, discuss the following:
Study
Assumptions:
Project: ABC Manufacturing Company
1) Financial Analysis (Cash Flow, Payback Period , IRR , … )
2) Economical Analysis (Unit Cost , Profit Ratio for each period , …)
3) Risk Analysis (Sensitivity Analysis for Market Price & Production Cost Change ± 10%)
108. PM 108
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Year 0 1 2 3 4 5
Income:
Sales Quantity, units 4000 5000 6000 7000 8000
Unit Price, $ 3000 3250 3500 3750 4000
Initial Investment ($1000):
Equipment (Assets) 25000
Building (Assets) 5000
Salvage Value 15000
Cost Elements ($1000):
Direct Production Cost 2000 2500 3000 3500 4000
Technical Overhead 1000 1250 1500 1750 2000
Office Overhead 500 625 750 875 1000
Maintenance (3% of investment) 900 900 900 900 900
Insurance (1% of investment) 300 300 300 300 300
Based on this information, discuss the following:
1) Financial Analysis (Cash Flow, Payback Period , IRR , … )
2) Economical Analysis (Unit Cost , Profit Ratio for each period , …)
3) Risk Analysis (Sensitivity Analysis for Market Price & Production Cost Change ± 10%)
Project: ABC Manufacturing Company
109. PM 109
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Year 0 1 2 3 4 5 6
Income:
Sales Quantity, units 500 550 600 650 700 750
Unit Price, $ 10.0 10.5 11.0 11.5 12.0 12.5
Initial Investment ($1000):
Equipment (Assets) 8000
Building (Assets) 3000
Cost Elements ($1000):
Direct Production Cost 2000 2500 3000 3500 4000 4500
• Annual Maintenance Cost = 3% of initial investment
• Annual Insurance = 1% of initial investment
• Salvage Value after 6 years = 40% of initial investment
• Technical Overhead = 50% of Direct Production Cost
• Office Overhead = 25% of Direct Production Cost
Based on this information, discuss the following:
Study
Assumptions:
Project: ABC Manufacturing Company
1) Financial Analysis (Cash Flow, Payback Period , IRR , … )
2) Economical Analysis (Unit Cost , Profit Ratio for each period , …)
3) Risk Analysis (Sensitivity Analysis for Market Price & Production Cost Change ± 10%)
110. PM 110
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (B)
Project (A)
Item
7
5
Initial Investment; M$
2
2
Annual Running Cost; M$/year
5
4
Annual Revenue; M$/year
2
1
Salvage Value; M$
4
4
Project Life; years
A manager is trying to decide between two projects (A or B):
Based on this information, discuss the following:
1. Cash Flow Diagram
2. Payback Period
3. Internal Rate of Return (IRR)
4. Which offer should you accept and why?
5. Sensitivity analysis for annual revenue , salvage value & initial investment (±10%)
Minimum Attractive Rate of Return (MARR) 20%
Example:
113. PM 113
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Financial Risk Analysis:
Indicator
Change in Annual Revenue
- 10% 0% + 10%
Payback Period ; years 3 3 2
IRR 22.96 % 31.56 % 39.94 %
Sensitivity Analysis for Project (B)
Indicator
Change in Salvage Value
- 10% 0% + 10%
Payback Period ; years 3 3 3
IRR 31.02 31.56 % 32.09
Indicator
Change in Initial Investment
- 10% 0% + 10%
Payback Period ; years 3 3 3
IRR 37.70 31.56 % 26.37
Scenarios
analysis (IRR%):
Optimistic 39.94
Most likely 31.56
Pessimistic 22.96
114. PM 114
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Sensitivity Analysis Graph for Project (B)
IRR%
-5
5
10
20
30
40
60
80
-30 -20 -10 0 10 20 30
Base
Annual
revenue
Initial
Invest
% change from base
Deviation -20% -15% -10% -5%
0%
Base
5% 10% 15% 20%
Annual revenue 22.96 31.56 % 39.94
Salvage value 31.56 %
Initial Investment 31.56 %
IRR Matrix
Sketch
115. PM 115
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (B)
Project (A)
Item
8
6
Initial Investment; M$
3
3
Annual Running Cost; M$/year
6
5
Annual Revenue; M$/year
3
2
Salvage Value; M$
5
5
Project Life; years
Based on this information, discuss the following:
1. Cash Flow Diagram
2. Payback Period
3. Internal Rate of Return (IRR)
4. Which offer should you accept and why?
5. Sensitivity analysis for annual revenue , salvage value & initial investment (±10%)
Minimum Attractive Rate of Return (MARR) 20%
A manager is trying to decide between two projects (A or B):
Example:
116. PM 116
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (A) Project (B)
Payback Period = 3 years
IRR = 25.25% > MARR 20%
Payback Period = 2.67 years
IRR = 30.7% > MARR 20%
Sensitivity analysis:
Deviation -10%
0%
Base
10%
Annual revenue 4.5 5 5.5
IRR% 15.12 25.2 % 35
Payback Period 4.0 3 2.4
Scenarios analysis (IRR%):
Optimistic 35%
Most likely 25.5
Pessimistic 15.2%
Sensitivity analysis:
Deviation -10%
0%
Base
10%
Annual revenue 5.4 6 6.6
IRR% 21.9 30.72 39.2
Payback Period 3.3 2.67 2.22
Scenarios analysis (IRR%):
Optimistic 39.2%
Most likely 30.72%
Pessimistic 21.9%
117. PM 117
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (B)
Project (A)
Item
5
4
Initial Investment; M$
2
1
Annual Running Cost; M$/year
5
3
Annual Revenue; M$/year
1
1
Salvage Value; M$
4
4
Project Life; years
Based on this information, discuss the following:
1. Cash Flow Diagram
2. Payback Period
3. Internal Rate of Return (IRR)
4. Which offer should you accept and why?
5. Sensitivity analysis for market price change (±10%)
Loan 15%
MARR = 20%
A manager is trying to decide between two projects (A or B):
Example:
118. PM 118
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Scenario Analysis
Item
Best
Base
Worst
25%
50%
25%
Probability; %
4
5
5.1
Initial Investment; M$
3
4
4.1
Annual Running Cost; M$/year
6
5
4.9
Annual Revenue; M$/year
3
2
1.9
Salvage Value; M$
4
4
4
Project Life; years
Example:
Based on this information, discuss the following:
1. Cash Flow Diagram
2. Payback Period
3. Internal Rate of Return (IRR)
Risk Analysis
119. PM 119
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Scenario Analysis
Item
Best
Base
Worst
25%
50%
25%
Probability; %
4
5
5.1
Initial Investment; M$
3
4
4.1
Annual Running Cost; M$/year
6
5
4.9
Annual Revenue; M$/year
3
2
1.9
Salvage Value; M$
4
4
4
Project Life; years
2
4
4
Payback Period (years)
72.7
6.4
0
Internal Rate of Return (IRR)
Risk Analysis
E (Payback Period) = 4 * 0.25 + 4 * 0.50 + 2 * 0.25= 3.5 years
E (IRR) = 0 * 0.25 + 6.4 * 0.50 + 72.7 * 0.25 = 21.4 %
Estimation:
120. PM 120
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Scenario Analysis
Item
Best
Base
Worst
25%
50%
25%
Probability; % (by default)
4
5
6
Initial Investment; M$
3
4
5
Annual Running Cost; M$/year
6
5
4
Annual Revenue; M$/year
3
2
1
Salvage Value; M$
4
4
4
Project Life; years
Example:
Based on this information, discuss the following:
1. Cash Flow Diagram
2. Payback Period
3. Internal Rate of Return (IRR)
Risk Analysis
121. PM 121
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Scenario Analysis
Item
Best
Base
Worst
25%
50%
25%
Probability; %
4
5
6
Initial Investment; M$
3
4
5
Annual Running Cost; M$/year
6
5
4
Annual Revenue; M$/year
3
2
1
Salvage Value; M$
4
4
4
Project Life; years
2
4
N/A
Payback Period (years)
72.7
6.4
N/A
Internal Rate of Return (IRR)
Infeasible
Risk Analysis
E (Payback Period) =
E (IRR) =
Estimation:
122. PM 122
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (B)
Project (A)
Item
One year
One year
Construction Period
5
4
Initial Investment; M$
2
1
Annual Running Cost; M$/year
5
3
Annual Revenue; M$/year
1
1
Salvage Value; M$
4
4
Life after construction; years
Based on this information, discuss the following:
1. Cash Flow Diagram
2. Payback Period
3. Internal Rate of Return (IRR)
4. Which offer should you accept and why?
5. Sensitivity analysis for market price change (±10%)
Loan 15%
MARR = 20%
(Construction Period)
A manager is trying to decide between two projects (A or B):
Example:
123. PM 123
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (B)
Project (A)
Item
One year
Six months
Construction Period
6
5
Initial Investment; M$
3
2
Annual Running Cost; M$/year
6
4
Annual Revenue; M$/year
2
2
Salvage Value; M$
6
5
Life after construction; years
Based on this information, discuss the following:
1. Cash Flow Diagram
2. Payback Period
3. Internal Rate of Return (IRR)
4. Which offer should you accept and why?
5. Sensitivity analysis for market price change (±10%)
MARR = 20%
(Construction Period)
A manager is trying to decide between two projects (A or B):
Example:
124. PM 124
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (A) Project (B)
Payback Period = 3 years
IRR = 27.7% > MARR 20%
Payback Period = 3 years
IRR = 32.3% > MARR 20%
Sensitivity analysis:
Deviation -10%
0%
Base
10%
Annual revenue 3.6 4 4.4
IRR% 20.4 27.7 34.7
Payback Period 3.63 3.0 2.58
Scenarios analysis (IRR%):
Optimistic 34.7
Most likely 27.7
Pessimistic 20.4
Sensitivity analysis:
Deviation -10%
0%
Base
10%
Annual revenue 5.4 6 6.6
IRR% 25.4 32.3 38.5
Payback Period 3.5 3.0 2.67
Scenarios analysis (IRR%):
Optimistic 38.5
Most likely 32.3
Pessimistic 25.4
125. PM 125
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (B)
Project (A)
Item
Two years
One year
Construction Period
$ 100,000 Down payment (t=0)
200,000 after one year
100,000 after two years
$ 100,000 Down payment (t=0)
$ 300,000 Final payment
Construction
investment
50,000 first year
100,000 second year
150,000 third year
200,000 forth year
$ 100,000 / year
Running cost after
construction
150,000 first year
300,000 second year
500,000 third year
400,000 forth year
$ 250,000 / year
Revenue after
construction
Four years
Four years
Life after construction
$ 100,000
$ 100,000
Salvage value
Based on this information, discuss & select the best alternative.
Minimum Attractive Rate of Return (MARR) 25%
Bank Interest Rate 10% Annual
A manager is trying to decide between two projects (A or B):
Example: (Construction Period)
126. PM 126
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (A)
Item
One year
Construction
Period
$ 100,000 Down payment (t=0)
$ 300,000 Final payment
Construction
investment
$ 100,000 / year
Running cost
after
construction
$ 250,000 / year
Revenue after
construction
Four years
Life after
construction
$ 100,000
Salvage value
Minimum Attractive Rate of Return (MARR) 25%
100 100
100
250
300
0 1
100
100
150
300
0 1
IRR = 21.7 < 25%
(Rejected)
127. PM 127
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (B)
Item
Two years
Construction
Period
$ 100,000 Down payment (t=0)
200,000 after one year
100,000 after two years
Construction
investment
50,000 first year
100,000 second year
150,000 third year
200,000 forth year
Running cost
after
construction
150,000 first year
300,000 second year
500,000 third year
400,000 forth year
Revenue after
construction
Four years
Life after
construction
$ 100,000
Salvage value
350
100
200
100
100
200
300
IRR = 25.25% > 25%
(Accepted)
0
129. PM 129
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Lake Lake
x
x
5 km
5 km
5 km
5 km
There are two ways (A and B) to construct a power line:
Standard Information
Example:
Project (B)
Project (A)
Item
Around lake
Under lake
Method
15 km
5 km
Length
130. PM 130
Cost Management Best Practice - Dr. Attia Gomaa - 2018
There are two ways (A and B) to construct a power line:
Project (B)
Project (A)
Item
Around lake
Under lake
Method
15 km
5 km
Length
$ 5,000/km
$ 25,000/km
First Cost
$ 200/km
$ 400/km
Annual Maintenance Cost
15 year
15 year
Expected Life
$ 3000/km
$ 5000/km
Salvage Value
$ 400/km
$ 500/km
Annual Power Losses
Based on this information, discuss & select the best alternative.
Sensitivity analysis for first cost change (±20%) and line length (±10%).
Interest rate 12% (Loan)
Standard Information
Example:
131. PM 131
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (A)
Time
First
Cost
Annual
Maintenance
Power
Losses
Salvage
Value
Net
0 125 -125
1 2 2.5 -4.5
2 2 2.5 -4.5
3 2 2.5 -4.5
4 2 2.5 -4.5
5 2 2.5 -4.5
6 2 2.5 -4.5
7 2 2.5 -4.5
8 2 2.5 -4.5
…… …… …… …… ……
15 2 2.5 25 +20.5
Interest rate 12% (Loan)
NPV (12%) = 151.08 “Cost”
132. PM 132
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (B)
Time
First
Cost
Annual
Maintenance
Power
Losses
Salvage
Value
Net
0 75 -75
1 3 6 -9
2 3 6 -9
3 3 6 -9
4 3 6 -9
5 3 6 -9
6 3 6 -9
7 3 6 -9
8 3 6 -9
…… …… …… …… ……
15 3 6 45 +36
Interest rate 12% (Loan)
NPV (12%) = 128.08 “Cost”
133. PM 133
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (B)
Project (A)
Item
Around lake
Under lake
Method
16 km
8 km
Length
$ 5,000/km
$ 25,000/km
First Cost
$ 200/km
$ 400/km
Annual Maintenance Cost
10 year
10 year
Expected Life
$ 3000/km
$ 5000/km
Salvage Value
$ 400/km
$ 500/km
Annual Power Losses
NPV(A) = 227,803 NPV(B) = 126,515
For this non-profitable project, we should select project (B),
because it has lower NPV and also lower first cost.
Interest rate 12% (Loan)
Standard Information
Example:
There are two ways (A and B) to construct a power line:
134. PM 134
Cost Management Best Practice - Dr. Attia Gomaa - 2018
There are two ways (A and B) to construct a power line:
Project (B)
Project (A)
Item
Around lake
Under lake
Method
15 km
5 km
Length
$ 5,000/km
$ 25,000/km
First Cost
$ 200/km
$ 400/km
Annual Maintenance Cost
15 year
15 year
Expected Life
$ 3000/km
$ 5000/km
Salvage Value
$ 400/km
$ 500/km
Annual Power Losses
$ 25,000
$ 25,000
Annual Revenue
Based on this information, discuss & select the best alternative.
Sensitivity analysis for first cost change (±20%) and line length (±10%).
Interest rate 12% (Loan)
Standard Information
Example:
136. PM 136
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Capitalization Rate (Cap Rate)
is an indirect measurement of how an investment pays
for itself Average national cap rates for limited-service
hotels over the past decade ranged between 9-13%.
137. PM 137
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (B)
Project (A)
Item
5.0
4.5
Initial Investment; M$
1.2
1.1
Annual Running Cost; M$/year
3.0
2.5
Annual Revenue; M$/year
-
-
Salvage Value; M$
4
4
Project Life; years
Based on this information, discuss the following:
1. Cash Flow Diagram
2. Profitability Index
3. Capitalization Rate
4. Which offer should you accept and why?
Bank interest rate 12%
A manager is trying to decide between two projects (A or B):
Example:
138. PM 138
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (A) Project (B)
5.0
1 2
0 3 4
1.2
3.0
5.0
0 1 2 3 4
1.8
4.5
1 2
0 3 4
1.1
2.5
4.5
0 1 2 3 4
1.4
PI(B) > PI(A) & CR(B)>CR(A)
Project B is better than project A
Capitalization Rate =
Annual Net Income / Initial Capital Cost
= 1.4 / 4.5 = 0.311 = 31.1%
Capitalization Rate =
Annual Net Income / Initial Capital Cost
= 1.8/5.0 = 0.36 = 36%
NPV (cash inflow) =
= 1.4/(1.12) + 1.4/(1.12)^2
+ 1.4/(1.12)^3 + 1.4/(1.2)^4 = 4.25
Profitability Index =
NPV (cash inflow) / Initial Capital Cost
= 4.25 /4.5 = 0.94
Profitability Index =
= 5.47 /5.0 = 1.094
NPV (cash inflow) =
1.8/(1.12) + 1.8/(1.12)^2
+ 1.8/(1.12)^3 + 1.8/(1.12)^4 = 5.47
139. PM 139
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Hotel Cap Rate
Net Operating Income $1,953,930
Total Development Cost $12,192,731
Cap Rate 16%
140. PM 140
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (B)
Project (A)
Item
5.0
4.5
Initial Investment; M$
1.2
1.1
Annual Running Cost; M$/year
3.0
2.5
Annual Revenue; M$/year
-
-
Salvage Value; M$
4
4
Project Life; years
Based on this information, discuss the following:
1. Cash Flow Diagram
2. Profitability Index
3. Capitalization Rate
4. Which offer should you accept and why?
Bank interest rate 12%
A manager is trying to decide between two projects (A or B):
Example:
141. PM 141
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (A) Project (B)
5.0
1 2
0 3 4
1.2
3.0
5.0
0 1 2 3 4
1.8
4.5
1 2
0 3 4
1.1
2.5
4.5
0 1 2 3 4
1.4
PI(B) > PI(A) & CR(B)>CR(A)
Project B is better than project A
Capitalization Rate =
Annual Net Income / Initial Capital Cost
= 1.4 / 4.5 = 0.311 = 31.1%
Capitalization Rate =
Annual Net Income / Initial Capital Cost
= 1.8/5.0 = 0.36 = 36%
NPV (cash inflow) =
= 1.4/(1.12) + 1.4/(1.12)^2
+ 1.4/(1.12)^3 + 1.4/(1.12)^4 = 4.25
Profitability Index =
NPV (cash inflow) / Initial Capital Cost
= 4.25 /4.5 = 0.94
Profitability Index =
= 5.47 /5.0 = 1.094
NPV (cash inflow) =
1.8/(1.12) + 1.8/(1.12)^2
+ 1.8/(1.12)^3 + 1.8/(1.12)^4 = 5.47
142. PM 142
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project (B)
Project (A)
Item
5.0
4.5
Initial Investment; M$
1.2
1.1
Annual Running Cost; M$/year
3.0
2.5
Annual Revenue; M$/year
1.2
1.1
Salvage Value; M$
4
4
Project Life; years
Based on this information, discuss the following:
1. Cash Flow Diagram
2. Profitability Index
3. Capitalization Rate
4. Which offer should you accept and why?
Bank interest rate 12%
A manager is trying to decide between two projects (A or B):
Example:
145. PM 145
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Economic Service Life for a Lift Truck
Element
Life; Year
0 1 2 3 4 5 6 7
Initial Cost; $ 20000
O&M; $ 1000 + 15% Annual
Capital Maintenance; $ 2000
Book Value; $ 15000 11000 8000 6000 5000 4000 2000
Interest rate 15%
Replacement Analysis:
Based on this information; What is the economic life of a lift truck?
Example:
Annual Equivalent Cost (AEC)
146. PM 146
Cost Management Best Practice - Dr. Attia Gomaa - 2018
AEC1 = x (A/P,15%,1)
20,000
- 14,000 (P/F,15%,1)
i = 15%
0
20
1
1
15
Annual Equivalent Cost (AEC)
147. PM 147
Cost Management Best Practice - Dr. Attia Gomaa - 2018
AEC2 = x (A/P,15%,2)
20,000
+ 1,000 (P/F,15%,1)
- 9,850 (P/F,15%,2)
i = 15%
0
20
1
1
2
1.15
11
148. PM 148
Cost Management Best Practice - Dr. Attia Gomaa - 2018
AEC3 = x (A/P,15%,3)
20,000
+ 1,000 (P/F,15%,1)
+ 1,150 (P/F,15%,2)
- 6,700 (P/F,15%,3)
i = 15%
0
20
1
1
2
1.15
3
8
1.3
149. PM 149
Cost Management Best Practice - Dr. Attia Gomaa - 2018
AEC4 = x (A/P,15%,4)
20,000
+ 1,000 (P/F,15%,1)
+ 1,150 (P/F,15%,2)
+ 1,300 (P/F,15%,3)
- 4,550 (P/F,15%,4)
0
20
1
1
2
1.15
3 4
1.3
6
1.45
i = 15%
150. PM 150
Cost Management Best Practice - Dr. Attia Gomaa - 2018
AEC5 = x (A/P,15%,5)
20,000
+ 1,000 (P/F,15%,1)
+ 1,150 (P/F,15%,2)
+ 1,300 (P/F,15%,3)
+ 1,450 (P/F,15%,4)
- 1,400 (P/F,15%,5)
0
20
1
1
2
1.15
3 4 5
1.3
1.45
1.6
2
5
i = 15%
153. PM 153
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Economic Life for truck 6 Years
AEC
Year
9000
1
8225
2
7592
3
7003
4
6780
5
6405
6
6852
7
Year
AEC
Summary:
154. PM 154
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Economic Service Life for a compressor
Life; Year
0 1 2 3 4 5 6 7
Initial Cost; $ 18000
O&M; $ 1000 + 15% Annual
Capital Maint.; $ 3000 4500
Book Value; $ 10000 7500 5625 1780
Interest rate 15%
Based on this information; What is the economic life of this
compressor?
Example:
155. PM 155
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Economic Service Life
• N = 1
AEC1 = $18,000(A/P, 15%, 1) + $1,000 - $10,000
= $11,700
156. PM 156
Cost Management Best Practice - Dr. Attia Gomaa - 2018
• N = 2
AEC2 = [$18,000 + $1,000(P/A,15%, 15%, 2)](A/P, 15%, 2)
- $7,500 (A/F, 15%, 2)
= $8,653
157. PM 157
Cost Management Best Practice - Dr. Attia Gomaa - 2018
N = 3, AEC3 = $7,406
N = 4, AEC4 = $6,678
N = 5, AEC5 = $6,642
N = 6, AEC6 = $6,258
N = 7, AEC7 = $6,394
Minimum cost
Economic Service Life
158. PM 158
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Economic Service Life for a car
Element
Life; Year
0 1 2 3 4 5 6
Initial Cost 150000
O&M 2000 first year (+500 Annual)
Capital Maintenance 10000
Book Value 120000 100000 80000 60000 80000 60000
Interest rate 15%
Based on this information; What is the economic life of this car?
Replacement Analysis:
Example :
Annual Equivalent Cost (AEC)
159. PM 159
Cost Management Best Practice - Dr. Attia Gomaa - 2018
ID Activity Length (m)
A Line A 400
B Line B 300
C Line C 1000
D Line D 1200
E Line E 1600
F Line F 400
G Line G 800
Resources: Crew productivity = 200 m/day Average material cost = 10 $/m
Item : Water Pipeline Network
A B
C
D
E
F
G
Source
Source
Source
Process
Process
Project Sketch
Constraints: Maximum duration = 17 day Maximum number of crew = 4
Cost : Average crew cost rate= 100 $/day Margin factor= 30% from direct cost
(Predecessor, Duration, Resources)?
(Target Schedule)?
(Target Resource Plan)?
Based on this information, discuss the following:
Project Cost Analysis
160. PM 160
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Day
Crews
Day
Pre.
ID
17
16
15
14
13
12
11
10
9
8
7
6
5
4
3
2
1
A
B
C
D
E
F
G
Number of
Crews
(Target Schedule)
Project Constraints:
Maximum duration = 17 day Maximum number of crew = 4
161. PM 161
Cost Management Best Practice - Dr. Attia Gomaa - 2018
ID Name Pred.
Duration
(Day)
Number
of Crews
Material
Cost, $
A Line A - 2 2 4000
B Line B - 3 1 3000
C Line C - 5 2 10000
D Line D A,B 6 2 12000
E Line E C 8 2 16000
F Line F C 2 2 4000
G Line G D,E 4 2 8000
Item : Water Pipeline Network
Constraints: Maximum duration = 17 day Maximum number of crew = 4
Based on this information, discuss & analysis
the following:
1) Network (Logic & Risk)
2) Gantt Chart (Target Schedule)
3) Workers Profile (Target Resource Plan)
4) Cost Analysis (Target Cost Plan)
5) Cash In/ Out Analysis (Payment / Cost)
A B
C
D
E
F
G
Source
Source
Source
Process
Process
Payment Plan:
1) 25% Down Payment
2) 25% After One Week
3) 25% After Two Weeks
4) 25% Final Payment
Project Sketch
Cost : Average crew cost rate= 100 $/day Margin factor= 30% from direct cost
162. PM 162
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Day
Crews
Day
Pre.
ID
17
16
15
14
13
12
11
10
9
8
7
6
5
4
3
2
1
2
2
2
2
-
A
1
1
1
1
3
-
B
2
2
2
2
2
2
5
-
C
2
2
2
2
2
2
2
6
A,B
D
2
2
2
2
2
2
2
2
2
8
C
E
2
2
2
2
C
F
2
2
2
2
2
4
D,E
G
2
2
2
2
4
4
4
4
4
4
4
4
3
3
3
4
4
Number of
Crews
(Target Schedule)
Project Constraints:
Maximum duration = 17 day Maximum number of crew = 4
163. PM 163
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Day
Crews
Day
Pre.
ID
17
16
15
14
13
12
11
10
9
8
7
6
5
4
3
2
1
2
2
2
2
-
A
1
1
1
1
3
-
B
2
2
2
2
2
2
5
-
C
2
2
2
2
2
2
2
6
A,B
D
2
2
2
2
2
2
2
2
2
8
C
E
2
2
2
2
C
F
2
2
2
2
2
4
D,E
G
2
2
2
2
4
4
4
4
4
4
4
4
4
4
3
3
3
Number of
Crews
(Target Schedule)
Project Constraints:
Maximum duration = 17 day Maximum number of crew = 4
164. PM 164
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Network Analysis: A
B
C
D
G
E
F
Start
Finish
Day
Pred.
(FS=0)
ID
2
-
A
3
-
B
5
-
C
6
A,B
D
8
C
E
2
C
F
4
D,E
G
EF
d
ES
Activity ID
LF
TF
LS
3
B
6
D
2
A
5
C
8
E
2
F
4
G
0
Start
0
Finish
165. PM 165
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Network Analysis:
0 3 3
B
4 4 7
3 6 9
D
7 4 13
0 2 2
A
5 5 7
0 5 5
C
0 0 5
5 8 13
E
5 0 13
5 2 7
F
15 10 17
13 4 17
G
13 0 17
Planned Duration = 17 Critical Path: C-E-G
It is recommended that “Delay risk analysis” be considered for critical and near-
critical path work in the schedule because such work carries the greatest
likelihood of affecting timely completion
EF
d
ES
Activity ID
LF
TF
LS
0
Start
0
17
Finish
17
166. PM 166
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project Constraints:
Maximum duration = 17 day Maximum number of crew = 4
170. PM 170
Cost Management Best Practice - Dr. Attia Gomaa - 2018
ID Activity Pred.
Normal Crashing
Material
Cost, $
Duration
(Day)
Number of
Crews
Duration
(Day)
Number of
Crews
A Line A - 2 2 1 4 4000
B Line B - 3 1 2 2 3000
C Line C - 5 2 - - 10000
D Line D A,B 6 2 4 4 12000
E Line E C 8 2 6 3 16000
F Line F C 2 2 - - 4000
G Line G D,E 4 2 3 3 8000
Item : Water Pipeline Network
Constraints: Maximum duration = 17 day Maximum number of crew = 4
Cost : Average Crew Cost Rate = 100 $/day Margin Factor = 30% direct cost
171. PM 171
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Day
Crews
Day
Pre.
ID
17
16
15
14
13
12
11
10
9
8
7
6
5
4
3
2
1
2
2
2
2
-
A
1
1
1
1
3
-
B
2
2
2
2
2
2
5
-
C
2
2
2
2
2
2
2
6
A,B
D
2
2
2
2
2
2
2
2
2
8
C
E
2
2
2
2
C
F
2
2
2
2
2
4
D,E
G
2
2
2
2
4
4
4
4
4
4
4
4
4
4
3
3
3
Number of
Crews
(Target Schedule)
Normal : 17 day & 57 crew-day
Project Constraints:
Maximum duration = 17 day Maximum number of crew = 4
172. PM 172
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Day
Crews
Day
Pre.
ID
17
16
15
14
13
12
11
10
9
8
7
6
5
4
3
2
1
2
2
2
2
-
A
1
1
1
1
3
-
B
2
2
2
2
2
2
5
-
C
2
2
2
2
2
2
2
6
A,B
D
2
2
2
2
2
2
2
2
2
8
C
E
2
2
2
2
C
F
3
3
3
2
4
D,E
G
3
3
3
4
4
4
4
4
4
4
4
4
4
3
3
3
Number of
Crews
(Target Schedule)
#2 : 16 day & 58 crew-day
Project Constraints:
Maximum duration = 17 day Maximum number of crew = 4
173. PM 173
Cost Management Best Practice - Dr. Attia Gomaa - 2018
ID Activity Pred.
Normal Crashing
Material
Cost, $
Duration
(Day)
Number of
Crews
Duration
(Day)
Number of
Crews
A Line A - 2 2 1 4 4000
B Line B - 3 1 2 2 3000
C Line C - 5 2 - - 10000
D Line D A,B 6 2 4 4 12000
E Line E C 8 2 6 3 16000
F Line F C 2 2 - - 4000
G Line G D,E 4 2 3 3 8000
Item : Water Pipeline Network
Constraints: Maximum duration = 17 day Number of crew = Open
Cost : Average Crew Cost Rate = 100 $/day Margin Factor = 30% direct cost
174. PM 174
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Day
Crews
Day
Pre.
ID
17
16
15
14
13
12
11
10
9
8
7
6
5
4
3
2
1
2
2
2
2
-
A
1
1
1
1
3
-
B
2
2
2
2
2
2
5
-
C
2
2
2
2
2
2
2
6
A,B
D
3
3
3
3
3
3
2
8
C
E
2
2
2
2
C
F
3
3
3
2
4
D,E
G
3
5
5
5
5
5
5
5
5
4
4
3
3
3
Number of
Crews
(Target Schedule)
#3 : 14 day & 60 crew-day
Project Constraints:
Maximum duration = 17 day Maximum number of crew = Open
175. PM 175
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Day
Crews
Day
Pre.
ID
17
16
15
14
13
12
11
10
9
8
7
6
5
4
3
2
1
2
2
2
2
-
A
1
1
1
1
3
-
B
2
2
2
2
2
2
5
-
C
2
2
2
2
2
2
2
6
A,B
D
3
3
3
3
3
3
2
8
C
E
2
2
2
2
C
F
3
3
3
2
4
D,E
G
3
5
5
5
5
5
5
5
5
2
2
5
5
3
Number of
Crews
(Target Schedule)
#4 : 14 day & 60 crew-day
Project Constraints:
Maximum duration = 17 day Maximum number of crew = Open
176. PM 176
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Day
Crews
Day
Pre.
ID
17
16
15
14
13
12
11
10
9
8
7
6
5
4
3
2
1
2
2
2
2
-
A
1
1
1
1
3
-
B
2
2
2
2
2
2
5
-
C
2
2
2
2
2
2
2
6
A,B
D
3
3
3
3
3
3
2
8
C
E
2
2
2
2
C
F
3
3
3
2
4
D,E
G
3
5
5
5
5
5
5
5
5
5
5
3
2
2
Number of
Crews
(Target Schedule)
#3 : 14 day & 60 crew-day
Project Constraints:
Maximum duration = 17 day Maximum number of crew = Open
177. PM 177
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Example; Building
Direct Cost $
Predecessor
Duration (weeks)
ID
15,000
-
5
A
30,000
-
3
B
33,000
A
8
C
42,000
A
7
D
57,000
-
7
E
61,000
C, E
4
F
72,000
F
5
G
Based on this information, discuss &
analysis the following:
1) Network
2) Gantt Chart
3) Cost Analysis
4) Cost Smoothing
5) Cash Flow (In/ Out) Analysis
Payment Conditions:
1) 25% Down Payment
2) 25% After 8 Weeks
3) 25% After 16 Weeks
4) 25% Final Payment
Project Cost Analysis
Planned Duration = 22 weeks Margin Factor = 30% from direct cost
178. PM 178
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Logic Diagram:
E
Start
Finish
A
B
D
C
F G
179. PM 179
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Network Analysis:
5
A
0
Start
Finish
8
C
7
E
4
F
7
D
5
G
3
B
180. PM 180
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Weeks
Pred
Day
ID
22
21
20
19
18
17
16
15
14
13
12
11
10
9
8
7
6
5
4
3
2
1
-
5
A
-
3
B
A
8
C
A
7
D
-
7
E
C, E
4
F
F
5
G
181. PM 181
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project Co$t Control
Cost
Control
Actual
Performance
Planned
Performance
KPIs report
(Earned Value Analysis)
182. PM 182
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project: Office Building
Item (main activity): Excavation works
Brainstorming: Project Control
Actual Performance (Status Report after 6 days):
Actual Quantity = 320 m3
Actual Cost = 3300 $
Planned Performance (Baseline):
Bill of Quantity (BOQ) = 500 m3
Unit Price = 10 $/m3
Duration = 10 day
Control
183. PM 183
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project: Office Building
Item (main activity): Excavation works
Brainstorming: Project Control
Actual Performance (Status Report after 6 days):
Actual Quantity = 320 m3
Actual Cost = 3300 $
Planned Performance (Baseline):
Bill of Quantity (BOQ) = 500 m3
Unit Cost = 10 $/m3
Duration = 10 day
Daily Performance = 500 / 10 = 50 m3/day
Control
Planned Performance after 6 days:
Panned Quantity = 50*6 = 300 m3
Planned Cost = 10*300 = 3000 $
Analysis:
Quantity Variance = 320 – 300 = + 20 Ahead
Cost Variance = 320*10 – 3300 = - 100 Over budget
184. PM 184
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project Cost Control
Cost control is a Part of Cost Management.
70% of projects are
over budget and/or
behind schedule
52% of all projects
finish at 189% of their
initial budget
30% of completed
projects have a cost
variance of >10%
50% of completed
projects have a
schedule variance
of >10%
(Earned Value Analysis)
(1)
(2)
(3)
(4)
185. PM 185
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Earned Value Management (EVM)
EVM is a cost management technique where the value of completed
work is compared to actual costs and the scheduled costs
EVM is a project management tool that integrates
the project performance with schedule and cost elements.
Earned Value Management Systems measure progress
186. PM 186
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Schedule
Variance
Cost
Variance
Schedule
Performance
Index
Cost
Performance
Index
Planned Value = PV = BCWS
(Budget Cost for the Work Schedule) Base line
Actual Cost = AV = ACWP
(Actual Cost for the Work Performed) Actual
Earned Value = EV = BCWP
(Budget Cost for the Work Performed) Invoice
Earned Value Analysis
187. PM 187
Cost Management Best Practice - Dr. Attia Gomaa - 2018
• Schedule Variance SV = BCWP – BCWS
(>0 is ahead, 0 is on target, <0 is behind)
• Schedule Performance Index SPI = BCWP/BCWS
(>1 is ahead, 1 is on target, <1 is behind)
• Cost Variance CV = BCWP – ACWP
(>0 is under-run, 0 is on target, <0 is overrun)
• Cost Performance Index CPI = BCWP/ACWP
(>1 is under-run, 1 is on target, <1 is over-run)
Earned Value Analysis
188. PM 188
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project: Office Building
Item (main activity): Excavation works
Brainstorming: Project Control
Actual Performance (Status Report after 6 days):
Actual Quantity = 320 m3
Actual Cost = 3300 $
Planned Performance (Baseline):
Bill of Quantity (BOQ) = 500 m3
Unit Price = 10 $/m3
Duration = 10 day
Control
189. PM 189
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project: Office Building
Item (main activity): Excavation works
Brainstorming: Project Control
Actual Performance (Status Report after 6 days):
Actual Quantity = 320 m3 WP
Actual Cost = 3300 $ ACWP
Actual Cost Rate (AC) = 10.3 $/m3 AC
Planned Performance (Baseline):
Bill of Quantity (BOQ) = 500 m3 WS
Unit Price = 10 $/m3 BC
Duration = 10 day
Control
Actual Value (ACWP) = 3300 $
Planned Value (BCWS) = 3000 $
Earned Value (BCWP) = 3200 $
After 6 days:
190. PM 190
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project: Office Building Item: Excavation works
Brainstorming: Project Control
Actual Value (ACWP) = 3300 $
Planned Value (BCWS) = 3000 $ Control
Earned Value (BCWP) = 3200 $
• Cost variance:
• BCWP – ACWP =3200 – 3300 = -100 $ (Overrun)
• Cost Performance Index:
CPI = BCWP/ACWP = 3200/3300 =0.97 = 97%
• Schedule variance:
• BCWP – BCWS = 3200 – 3000 = +200 $ (ahead)
• Schedule Performance Index:
SPI = BCWP/BCWS = 3200/3000 =1.07 = 107%
191. PM 191
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project: Gas Pipeline Activity: Excavation
Bill of Quantity (BOQ) = 500 m3 Unit Price = 10 LE/m3 Duration= 10 day
Status Report after 6 day:
Actual Quantity = 320 m3 Actual Cost = 3300 LE
Example:
6 day
$
BAC = 5000
CV =
- 100
SV =
+ 200
10 day
Ahead of
schedule
•Over –run cost
•Ahead of schedule
192. PM 192
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project: Office Building
Item (main activity): Excavation works
Planned Performance (Baseline):
Bill of Quantity (BOQ) = 600 m3
Unit Price = 10 $/m3
Duration = 10 day
Actual Performance (Status Report after 6 days):
Actual Quantity = 300 m3
Actual Cost = 3300 $
Brainstorming: Earned Value Analysis
Based on this information, calculate and analyze the following:
a) What is the cost variance?
b) What is the Schedule variance?
c) What is the Cost Performance Index?
d) What is the Schedule Performance Index?
e) How would you describe this project?
193. PM 193
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project: Office Building Item: Excavation works
Brainstorming: Project Control
Actual Value (ACWP) = 3300
Planned Value (BCWS) = 3600
Earned Value (BCWP) = 3000
• Cost variance:
• BCWP – ACWP = 3000 – 3300 = -300
• Cost Performance Index:
CPI = BCWP/ACWP = 3000 / 3300 = 91% (Overrun)
• Schedule variance:
• BCWP – BCWS = 3000 – 3600 = - 600
• Schedule Performance Index:
SPI = BCWP/BCWS = 3000 / 3600 = 83% (Behind)
After 6 days:
194. PM 194
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Project: Office Building
Item (main activity): Excavation works
Planned Performance (Baseline):
Bill of Quantity (BOQ) = 600 m3
Unit Price = 10 $/m3
Duration = 10 day
Actual Performance (Status Report after 6 days):
Actual Quantity = 300 m3
Actual Cost = 3300 $
Brainstorming: Earned Value Analysis
Based on this information, calculate and analyze the following:
a) What is the cost variance?
b) What is the Schedule variance?
c) What is the Cost Performance Index?
d) What is the Schedule Performance Index?
e) How would you describe this project?
195. PM 195
Cost Management Best Practice - Dr. Attia Gomaa - 2018
A construction project has a total budget (BAC) of $300,000 and the
total duration of 12 months. After 4 months, the cost control revealed
the following figures:
• Actual Cost of Work Performed (ACWP) = $ 110,000
• Budgeted Cost of Work Scheduled (BCWS) = $ 100,000
• Budgeted Cost of Work Performed (BCWP) = $ 90,000
a) Calculate the CPI and SPI
b) Calculate the Estimate At Completion (EAC) if the project will
continue to perform in the same way
c) Calculate the EAC if the project cost performance improved in the
remaining period by 10%
Example:
196. PM 196
Cost Management Best Practice - Dr. Attia Gomaa - 2018
A construction project has a total budget of $300,000 and the total duration of
12 months. After 4 months, the cost control revealed the following figures:
• Actual Cost of Work Performed (ACWP) = $ 110,000
• Budgeted Cost of Work Scheduled (BCWS) = $ 100,000
• Budgeted Cost of Work Performed (BCWP) = $ 90,000
a) Calculate the CPI and SPI
b) Calculate the EAC if the project will continue to perform in the same way
c) Calculate the EAC if the project cost performance improved in the
remaining period by 10%
CPI = BCWP / ACWP = 90,000 / 110,000 = 0.818 < 1 Over budget
SPI = BCWP / BCWS = 90,000 / 100,000 = 0.90 < 1 Behind schedule
Estimate At Completion (EAC) = BAC/CPI = 300000/0.818= 366,748
Improve Corrective Actions Improve CPI by 10%
Improve CPI by 10% New CPI = 0.818 *1.1 = 0.8998 (Expected)
New (EAC) = AC + {(BAC – EV) / CPI}
=110,000 + (300,000 – 90,000) / 0.8998 = $ 343,385
198. PM 198
Cost Management Best Practice - Dr. Attia Gomaa - 2018
A construction project has a total budget (BAC) of $300,000 and the
total duration of 12 months. After 8 months, the cost control revealed
the following figures:
• Actual Cost of Work Performed (ACWP) = $ 215,000
• Budgeted Cost of Work Scheduled (BCWS) = $ 200,000
• Budgeted Cost of Work Performed (BCWP) = $ 190,000
a) Calculate the CPI and SPI
b) Calculate the Estimate At Completion (EAC) if the project will
continue to perform in the same way
c) Calculate the EAC if the project cost performance improved in the
remaining period by 10%
Next:
200. PM 200
Cost Management Best Practice - Dr. Attia Gomaa - 2018
A construction project has a total budget (BAC) of $300,000 and the
total duration of 12 months. After 8 months, the cost control revealed
the following figures:
• Actual Cost of Work Performed (ACWP) = $ 215,000
• Budgeted Cost of Work Scheduled (BCWS) = $ 200,000
• Budgeted Cost of Work Performed (BCWP) = $ 190,000
a) Calculate the CPI and SPI
b) Calculate the EAC if the project will continue to perform in the same way
c) Calculate the EAC if the project cost performance improved in the
remaining period by 10%
CPI = BCWP / ACWP = 190,000 / 215,000 = 0.884 < 1 (Overrun)
SPI = BCWP / BCWS = 190,000 / 200,000 = 0.95 < 1 (Behind)
Estimate At Completion (EAC) = BAC/CPI = 300,000/0.884 = 340,909
Corrective Actions Improve CPI by 10%
New CPI = 0.884 *1.1 = 0.968
New (EAC) = AC + {(BAC – EV) / CPI}
= 215,000 + (300,000 – 190,000)/0.968 = 335,743
201. PM 201
Cost Management Best Practice - Dr. Attia Gomaa - 2018
A construction project has a total budget (BAC) of $300,000 and the
total duration of 12 months. After 13 months (closeout), the cost control
revealed the following figures:
• Actual Cost of Work Performed (ACWP) = $ 340,000
• Budgeted Cost of Work Scheduled (BCWS) = $ 300,000
• Budgeted Cost of Work Performed (BCWP) = $ 310,000
a) Calculate the CPI and SPI
CPI = BCWP / ACWP = 310,000 / 340,000 = 0.912 < 1 (overrun by 8.8%)
SPI = BCWP / BCWS = 310,000 / 300,000 = 1.03 > 1 (Ahead by 3%)
Closing:
202. PM 202
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Summary Report:
A construction project has a total budget (BAC) of $300,000 and the
total duration of 12 months.
Period (months) 4 8 13
Planned Value (PV = BCWS) 100,000 200,000 300,000
Actual Value (AV = ACWP) 110,000 215,000 340,000
Earned Value (EV =BCWP) 90,000 190,000 310,000
CPI = BCWP / ACWP
SPI = BCWP / BCWS
Estimate At Completion (EAC)
= BAC/CPI
212. PM 212
Cost Management Best Practice - Dr. Attia Gomaa - 2018
Activity
ID
Planned
Cost
Planned Date Actual
Performance at
period #10
Start Finish
A 4000 1 4 Completed
B 10000 3 6 Completed
C 12000 6 9 In Progress
D 4000 9 12 In Progress
G 6000 9 12 Not Started
H 6000 11 14 Not Started
I 10000 14 17 Not Started
Project Status Report:
Case Study:
Based on this information; discuss the earned value analysis using the
50-50 rule?