3PLs are a virtually perfect competitive business model. With highly variable costs to revenue, it is challenging to make a 3PL company thrive. Here is some research we have done with Lean Transit to achieve remarkable progress towards making 3PLs more profitable.
Lean Six Sigma Mistake-Proofing Process Training ModuleFrank-G. Adler
The Mistake-Proofing Process Training Module v5.0 includes:
1. MS PowerPoint Presentation including 128 slides covering in detail an Introduction to Process Risk Analysis & Mistake-Proofing, Process Variables Mapping, Cause & Effect Matrix, Process Failure Mode and Effects Analysis, Human Work Model, Sixteen Human Error Modes, Six Mistake-Proofing Principles, Five Mistake-Proofing Methods, Seven Types of Poka-Yoke Devices, Poka-Yoke Examples, Process Control Plan, and 6 Workshop Exercises.
2. MS Word Process FMEA Severity, Occurrence, and Detection Risk Assessment Guidelines
3. MS Excel Process Variables Map Template, Cause & Effect Matrix Template, Process Failure Modes and Effects Analysis Template, and Process Control Plan Template
This chapter outline describes statistical quality control tools including control charts. Control charts are used to detect assignable causes of variation and improve process stability. The document defines key control chart terminology like rational subgroups and patterns. It provides examples of variable control charts like X-bar and R charts and attribute charts like P and U charts. Process capability is also discussed along with ratios to quantify how close a process operates to specification limits. The goal of these statistical quality control methods is reduction of process variability through detection and elimination of assignable causes.
This document discusses process control and operational excellence. It covers key topics like:
- Reducing variation is important for process control and profitability. Variation is the enemy of Six Sigma.
- Standard deviation and variance are statistical measures of variation. Standard deviation quantifies how far data points deviate from the mean on average. Variance is the square of standard deviation.
- Many processes follow a normal distribution curve. Six sigma quality implies processes operate within 6 standard deviations of the mean 99.9997% of the time.
- Effective sampling plan design is needed to ensure sample data represents the true population and allows for statistical analysis despite non-normal parent distributions, according to the central limit theorem.
This chapter discusses statistical quality control and control charts. It covers the following key points:
1. Statistical process control uses tools like control charts to reduce variability and identify assignable causes of variation.
2. Control charts monitor a process over time and detect when the process moves out of the state of statistical control.
3. There are variables and attributes control charts. Variables charts like X-bar and R charts are for continuous data, while attributes charts like P and U charts are for discrete data.
4. Rational subgrouping aims to maximize differences between subgroups while minimizing within-subgroup differences to better detect assignable causes.
The document discusses quality control and statistical quality control. It defines quality as properties valued by consumers and quality control as maintaining standards through testing samples. The goal of quality control is to eliminate nonconformities and wasted resources at lowest cost. Statistical quality control uses statistical tools like descriptive statistics, acceptance sampling, and statistical process control to measure and control variation in processes. Examples are provided of x-bar and R charts to determine if a gluing process is in control, as well as P and C charts to monitor defects and complaints.
Six Sigma is a data-driven approach to process improvement that aims to reduce defects. It was introduced by Motorola in 1987 and involves defining, measuring, analyzing, improving, and controlling processes to minimize errors. The goal of Six Sigma is to operate processes with as close to zero defects as possible by reducing process variation. A Six Sigma process is one that produces only 3.4 defects per million opportunities. Key aspects include using statistical tools and methodologies, defining customer requirements, and establishing roles like Champions, Black Belts and Green Belts to lead improvement projects.
Six Sigma is a data-driven approach to process improvement that aims to reduce defects. It was introduced by Motorola in 1987 and involves defining, measuring, analyzing, improving, and controlling processes to minimize errors. The goal of Six Sigma is to operate processes with as close to zero defects as possible by reducing process variation. A Six Sigma process is one that produces only 3.4 defects per million opportunities. Key aspects include using statistical tools and methodologies, such as DMAIC, to systematically identify and remove sources of errors and variation in order to improve quality, lower costs, and increase customer satisfaction.
This document provides an overview of statistical quality control techniques. It describes the three main categories of statistical quality control as statistical process control, descriptive statistics, and acceptance sampling. Control charts are introduced as a key tool of statistical process control, and the differences between variable and attribute control charts are explained. Process capability, six sigma methodology, and acceptance sampling plans are also overviewed.
Lean Six Sigma Mistake-Proofing Process Training ModuleFrank-G. Adler
The Mistake-Proofing Process Training Module v5.0 includes:
1. MS PowerPoint Presentation including 128 slides covering in detail an Introduction to Process Risk Analysis & Mistake-Proofing, Process Variables Mapping, Cause & Effect Matrix, Process Failure Mode and Effects Analysis, Human Work Model, Sixteen Human Error Modes, Six Mistake-Proofing Principles, Five Mistake-Proofing Methods, Seven Types of Poka-Yoke Devices, Poka-Yoke Examples, Process Control Plan, and 6 Workshop Exercises.
2. MS Word Process FMEA Severity, Occurrence, and Detection Risk Assessment Guidelines
3. MS Excel Process Variables Map Template, Cause & Effect Matrix Template, Process Failure Modes and Effects Analysis Template, and Process Control Plan Template
This chapter outline describes statistical quality control tools including control charts. Control charts are used to detect assignable causes of variation and improve process stability. The document defines key control chart terminology like rational subgroups and patterns. It provides examples of variable control charts like X-bar and R charts and attribute charts like P and U charts. Process capability is also discussed along with ratios to quantify how close a process operates to specification limits. The goal of these statistical quality control methods is reduction of process variability through detection and elimination of assignable causes.
This document discusses process control and operational excellence. It covers key topics like:
- Reducing variation is important for process control and profitability. Variation is the enemy of Six Sigma.
- Standard deviation and variance are statistical measures of variation. Standard deviation quantifies how far data points deviate from the mean on average. Variance is the square of standard deviation.
- Many processes follow a normal distribution curve. Six sigma quality implies processes operate within 6 standard deviations of the mean 99.9997% of the time.
- Effective sampling plan design is needed to ensure sample data represents the true population and allows for statistical analysis despite non-normal parent distributions, according to the central limit theorem.
This chapter discusses statistical quality control and control charts. It covers the following key points:
1. Statistical process control uses tools like control charts to reduce variability and identify assignable causes of variation.
2. Control charts monitor a process over time and detect when the process moves out of the state of statistical control.
3. There are variables and attributes control charts. Variables charts like X-bar and R charts are for continuous data, while attributes charts like P and U charts are for discrete data.
4. Rational subgrouping aims to maximize differences between subgroups while minimizing within-subgroup differences to better detect assignable causes.
The document discusses quality control and statistical quality control. It defines quality as properties valued by consumers and quality control as maintaining standards through testing samples. The goal of quality control is to eliminate nonconformities and wasted resources at lowest cost. Statistical quality control uses statistical tools like descriptive statistics, acceptance sampling, and statistical process control to measure and control variation in processes. Examples are provided of x-bar and R charts to determine if a gluing process is in control, as well as P and C charts to monitor defects and complaints.
Six Sigma is a data-driven approach to process improvement that aims to reduce defects. It was introduced by Motorola in 1987 and involves defining, measuring, analyzing, improving, and controlling processes to minimize errors. The goal of Six Sigma is to operate processes with as close to zero defects as possible by reducing process variation. A Six Sigma process is one that produces only 3.4 defects per million opportunities. Key aspects include using statistical tools and methodologies, defining customer requirements, and establishing roles like Champions, Black Belts and Green Belts to lead improvement projects.
Six Sigma is a data-driven approach to process improvement that aims to reduce defects. It was introduced by Motorola in 1987 and involves defining, measuring, analyzing, improving, and controlling processes to minimize errors. The goal of Six Sigma is to operate processes with as close to zero defects as possible by reducing process variation. A Six Sigma process is one that produces only 3.4 defects per million opportunities. Key aspects include using statistical tools and methodologies, such as DMAIC, to systematically identify and remove sources of errors and variation in order to improve quality, lower costs, and increase customer satisfaction.
This document provides an overview of statistical quality control techniques. It describes the three main categories of statistical quality control as statistical process control, descriptive statistics, and acceptance sampling. Control charts are introduced as a key tool of statistical process control, and the differences between variable and attribute control charts are explained. Process capability, six sigma methodology, and acceptance sampling plans are also overviewed.
Graphically viewing the flow of value as its fit, form and/or function is improved from suppliers to customers. It shows value-added and non-value-added activities.
This document provides an overview of process mapping tools including SIPOC (Supplier, Input, Process, Output, Customer) mapping and detailed process mapping. It defines the key elements of each tool, the objectives, benefits and steps to generate a map. Examples of a SIPOC map and a detailed process map for a catapult firing process are included to demonstrate how each tool can be applied. Additionally, the document introduces root cause analysis using a fishbone diagram and Failure Mode and Effects Analysis (FMEA). It defines the objectives of each tool, how to set them up, and includes an example FMEA analysis for potential failures in emergency response phone systems.
The talk describes how service operations in the insurance industry can be optimized using Process Wind Tunnel. Process Wind Tunnel utilizes novel process analytics, process mining, simulation and targeted automation to improve business processes. It also describes a real-world application of process mining to diagnose complex business process and gain insights. This talk was delivered at the Process Mining Camp 2020 and is available on Youtube (https://www.youtube.com/watch?v=ujEoPiuo9As)
The document provides an overview of failure mode and effects analysis (FMEA). It defines FMEA as a systematic technique used to evaluate potential failures and their causes. The objective is to classify possible failures by their severity, occurrence, and detection to find solutions that eliminate or minimize risks. The document outlines the FMEA process, which involves determining the process/component, identifying potential failure modes and effects, rating severity, occurrence, and detection, calculating the risk priority number, and planning corrective actions. FMEA is a proactive method used in design, manufacturing, and other stages to prevent defects and improve quality.
One of the things I enjoy most in process analysis is combining technologies. The idea is that deliverables generated by one technology, can be associated nicely with deliverables generated by other technologies. Such combinations reveal new magnificent insights about our processes, and opportunities for improving them.
The three technologies that I find extremely friendly and "opened minded" for such a challenge are: the BPM manager of Priority ERP, Disco - an Automatic Process Discovery tool, and QlikView -a business discovery tool.
The attached presentation includes practical examples to get you inspired. So, go ahead and give it a try!
This document provides an overview of Six Sigma and its methodology for process improvement. It defines key Six Sigma concepts like process capability and sigma levels. Six Sigma aims to reduce process variation and improve yields from 3 sigma to 6 sigma, resulting in fewer than 3.4 defects per million opportunities. It outlines the DMAIC methodology used, including defining problems, measuring baseline performance, analyzing sources of variation, improving the process, and controlling the gains. The goal is to understand and control all sources of variation to meet customer requirements.
This document provides an overview of Six Sigma and its methodology. It discusses key Six Sigma concepts like process capability and sigma levels. It outlines Motorola's development of Six Sigma to reduce process variation and improve customer satisfaction. The Six Sigma improvement methodology is then summarized in five steps - Define, Measure, Analyze, Improve, Control (DMAIC) which aims to understand problems, measure performance, analyze causes of variation, improve the process, and control gains. Various tools used at each step like QFD, DOE, control charts are also briefly explained.
IJRET : International Journal of Research in Engineering and Technology is an international peer reviewed, online journal published by eSAT Publishing House for the enhancement of research in various disciplines of Engineering and Technology. The aim and scope of the journal is to provide an academic medium and an important reference for the advancement and dissemination of research results that support high-level learning, teaching and research in the fields of Engineering and Technology. We bring together Scientists, Academician, Field Engineers, Scholars and Students of related fields of Engineering and Technology
The document provides an overview of value stream mapping (VSM). It discusses what a value stream is, defines VSM as a tool to visually map both material and information flows, and outlines the key steps in conducting a VSM including drawing the current state, characteristics of a lean value stream, and drawing a future state. An example current state map is also included showing the processes, lead times, and inventory for a product family at a stamping company. The document emphasizes that VSM is used to identify waste and design a leaner future state with smooth continuous flow.
Principles Of Lean And Value Stream Mapping Overviewjheaton418
The document provides an overview of lean principles and value stream mapping. It discusses that value stream mapping is a visual tool to understand the flow of material and information required to deliver a product or service. It also outlines the current and future state metrics that would be used to quantify improvements from value stream mapping. Examples of improvement targets are reducing process time, inventory, costs and increasing capacity. The key is to identify tasks, assign responsibilities, and regularly review progress to implement the future state goals.
The document provides an overview of value stream mapping (VSM). It discusses how VSM is used to visualize the flow of materials and information through a process in order to identify waste. Key aspects covered include the nine types of waste, guidelines for creating current and future state maps, and calculating process cycle efficiency. The document then provides sample data to map the current state of a value stream for a manufacturing company.
Can you put a price on your annual wastage? QI Analyst helps you to improve quality and product variability by improving the stability of your process!
Webinar Content
What is Statistical Process Control (SPC)?
How can you use Statistical Process Control to improve your processes?
Tools you need to drive SPC
Ways this can interface with Wonderware
A success story
Short Demo
Q & A
This webinar is hosted by our Senior Consultant Chris Titley. Chris has worked at SolutionsPT for 13 years standing and has a masters Degree in Control Engineering and Optimisation. Previously he worked in a user capacity in the electronics industry. He now looks after the Terminal Services solutions and specifically managers ACP ThinManager offerings. Chris also has wide experience of InTouch, QI Analyst, ScadaAlarm, SPC Pro, Historian and Active Factory.
This says about the basic concepts pertaining to Process Mapping and Value Stream Mapping , as an initiative towards Lean implemntation in Industrial environment.
The document outlines a Six Sigma project to address high shorted percentages at a cable manufacturing company. It defines the problem as shorted percentages being over 2% for the past two months instead of the target of 1.3%. The project goals are to decrease the shorted percentage to the target and avoid business losses. Key steps include defining CTQs, collecting data on shorted drums, analyzing potential causes using hypothesis testing and Ishikawa diagrams, and improving and controlling the process.
The document outlines the control phase tools and activities for a Lean Six Sigma project. It includes reviewing project documentation, validating goals and benefits, developing standard operating procedures and controls, implementing and monitoring the solution, confirming attainment of goals, identifying opportunities for replication, and transitioning the project to the process owner. Key metrics are monitored to ensure the process remains in control. Lessons learned are captured to improve future projects.
The document outlines the control phase tools and activities in a Lean Six Sigma project. It includes reviewing project documentation and metrics, developing standard operating procedures and controls, implementing and monitoring the solution, confirming goals are met, identifying opportunities for replication, and transitioning the project to the process owner. Key steps are developing a control plan to monitor processes and respond to variation, updating failure modes and effects analysis, and communicating project results and benefits.
Performance measurement and exception management in investment processingNIIT Technologies
This document provides an overview of NIIT Technologies' performance measurement and exception management solution for investment processing. It discusses the challenges of straight-through processing for financial transactions due to increasing volumes, complex products, and regulatory requirements. The solution captures all incidents and exceptions during trade processing, classifies and enriches the data with reasons, generates reports to analyze performance on metrics like accuracy and productivity, and provides dashboards to view the information. NIIT Technologies has experience implementing this solution for large financial clients to improve operational efficiency and meet service level agreements.
Graphically viewing the flow of value as its fit, form and/or function is improved from suppliers to customers. It shows value-added and non-value-added activities.
This document provides an overview of process mapping tools including SIPOC (Supplier, Input, Process, Output, Customer) mapping and detailed process mapping. It defines the key elements of each tool, the objectives, benefits and steps to generate a map. Examples of a SIPOC map and a detailed process map for a catapult firing process are included to demonstrate how each tool can be applied. Additionally, the document introduces root cause analysis using a fishbone diagram and Failure Mode and Effects Analysis (FMEA). It defines the objectives of each tool, how to set them up, and includes an example FMEA analysis for potential failures in emergency response phone systems.
The talk describes how service operations in the insurance industry can be optimized using Process Wind Tunnel. Process Wind Tunnel utilizes novel process analytics, process mining, simulation and targeted automation to improve business processes. It also describes a real-world application of process mining to diagnose complex business process and gain insights. This talk was delivered at the Process Mining Camp 2020 and is available on Youtube (https://www.youtube.com/watch?v=ujEoPiuo9As)
The document provides an overview of failure mode and effects analysis (FMEA). It defines FMEA as a systematic technique used to evaluate potential failures and their causes. The objective is to classify possible failures by their severity, occurrence, and detection to find solutions that eliminate or minimize risks. The document outlines the FMEA process, which involves determining the process/component, identifying potential failure modes and effects, rating severity, occurrence, and detection, calculating the risk priority number, and planning corrective actions. FMEA is a proactive method used in design, manufacturing, and other stages to prevent defects and improve quality.
One of the things I enjoy most in process analysis is combining technologies. The idea is that deliverables generated by one technology, can be associated nicely with deliverables generated by other technologies. Such combinations reveal new magnificent insights about our processes, and opportunities for improving them.
The three technologies that I find extremely friendly and "opened minded" for such a challenge are: the BPM manager of Priority ERP, Disco - an Automatic Process Discovery tool, and QlikView -a business discovery tool.
The attached presentation includes practical examples to get you inspired. So, go ahead and give it a try!
This document provides an overview of Six Sigma and its methodology for process improvement. It defines key Six Sigma concepts like process capability and sigma levels. Six Sigma aims to reduce process variation and improve yields from 3 sigma to 6 sigma, resulting in fewer than 3.4 defects per million opportunities. It outlines the DMAIC methodology used, including defining problems, measuring baseline performance, analyzing sources of variation, improving the process, and controlling the gains. The goal is to understand and control all sources of variation to meet customer requirements.
This document provides an overview of Six Sigma and its methodology. It discusses key Six Sigma concepts like process capability and sigma levels. It outlines Motorola's development of Six Sigma to reduce process variation and improve customer satisfaction. The Six Sigma improvement methodology is then summarized in five steps - Define, Measure, Analyze, Improve, Control (DMAIC) which aims to understand problems, measure performance, analyze causes of variation, improve the process, and control gains. Various tools used at each step like QFD, DOE, control charts are also briefly explained.
IJRET : International Journal of Research in Engineering and Technology is an international peer reviewed, online journal published by eSAT Publishing House for the enhancement of research in various disciplines of Engineering and Technology. The aim and scope of the journal is to provide an academic medium and an important reference for the advancement and dissemination of research results that support high-level learning, teaching and research in the fields of Engineering and Technology. We bring together Scientists, Academician, Field Engineers, Scholars and Students of related fields of Engineering and Technology
The document provides an overview of value stream mapping (VSM). It discusses what a value stream is, defines VSM as a tool to visually map both material and information flows, and outlines the key steps in conducting a VSM including drawing the current state, characteristics of a lean value stream, and drawing a future state. An example current state map is also included showing the processes, lead times, and inventory for a product family at a stamping company. The document emphasizes that VSM is used to identify waste and design a leaner future state with smooth continuous flow.
Principles Of Lean And Value Stream Mapping Overviewjheaton418
The document provides an overview of lean principles and value stream mapping. It discusses that value stream mapping is a visual tool to understand the flow of material and information required to deliver a product or service. It also outlines the current and future state metrics that would be used to quantify improvements from value stream mapping. Examples of improvement targets are reducing process time, inventory, costs and increasing capacity. The key is to identify tasks, assign responsibilities, and regularly review progress to implement the future state goals.
The document provides an overview of value stream mapping (VSM). It discusses how VSM is used to visualize the flow of materials and information through a process in order to identify waste. Key aspects covered include the nine types of waste, guidelines for creating current and future state maps, and calculating process cycle efficiency. The document then provides sample data to map the current state of a value stream for a manufacturing company.
Can you put a price on your annual wastage? QI Analyst helps you to improve quality and product variability by improving the stability of your process!
Webinar Content
What is Statistical Process Control (SPC)?
How can you use Statistical Process Control to improve your processes?
Tools you need to drive SPC
Ways this can interface with Wonderware
A success story
Short Demo
Q & A
This webinar is hosted by our Senior Consultant Chris Titley. Chris has worked at SolutionsPT for 13 years standing and has a masters Degree in Control Engineering and Optimisation. Previously he worked in a user capacity in the electronics industry. He now looks after the Terminal Services solutions and specifically managers ACP ThinManager offerings. Chris also has wide experience of InTouch, QI Analyst, ScadaAlarm, SPC Pro, Historian and Active Factory.
This says about the basic concepts pertaining to Process Mapping and Value Stream Mapping , as an initiative towards Lean implemntation in Industrial environment.
The document outlines a Six Sigma project to address high shorted percentages at a cable manufacturing company. It defines the problem as shorted percentages being over 2% for the past two months instead of the target of 1.3%. The project goals are to decrease the shorted percentage to the target and avoid business losses. Key steps include defining CTQs, collecting data on shorted drums, analyzing potential causes using hypothesis testing and Ishikawa diagrams, and improving and controlling the process.
The document outlines the control phase tools and activities for a Lean Six Sigma project. It includes reviewing project documentation, validating goals and benefits, developing standard operating procedures and controls, implementing and monitoring the solution, confirming attainment of goals, identifying opportunities for replication, and transitioning the project to the process owner. Key metrics are monitored to ensure the process remains in control. Lessons learned are captured to improve future projects.
The document outlines the control phase tools and activities in a Lean Six Sigma project. It includes reviewing project documentation and metrics, developing standard operating procedures and controls, implementing and monitoring the solution, confirming goals are met, identifying opportunities for replication, and transitioning the project to the process owner. Key steps are developing a control plan to monitor processes and respond to variation, updating failure modes and effects analysis, and communicating project results and benefits.
Performance measurement and exception management in investment processingNIIT Technologies
This document provides an overview of NIIT Technologies' performance measurement and exception management solution for investment processing. It discusses the challenges of straight-through processing for financial transactions due to increasing volumes, complex products, and regulatory requirements. The solution captures all incidents and exceptions during trade processing, classifies and enriches the data with reasons, generates reports to analyze performance on metrics like accuracy and productivity, and provides dashboards to view the information. NIIT Technologies has experience implementing this solution for large financial clients to improve operational efficiency and meet service level agreements.
The document provides an overview of the Six Sigma approach for process improvement. It discusses key Six Sigma concepts like defects per million opportunities (DPMO) and six sigma quality levels. The document also presents examples and tools used in the Six Sigma DMAIC problem-solving methodology. These include value stream mapping, control charts, Pareto diagrams, cause-and-effect diagrams and more. Implementation of Six Sigma requires top management support, a steering group, training Black Belts and Green Belts, and applying tools and methods to process improvement projects.
Process wind tunnel - A novel capability for data-driven business process imp...Sudhendu Rai
A talk I gave recently on data-driven process improvement methodology and techniques with applications and results from insurance and finance processes
This document discusses potential applications of Lean Six Sigma in job order production systems. It provides an overview of Lean Six Sigma concepts and tools, including the DMAIC process. It then discusses a case study of applying Lean Six Sigma at a turbine machining factory to address issues like thermal expansion during machining, tool breakage, and downtime. The document concludes that Six Sigma can be effectively applied to job order production, though it may be more challenging than in mass production environments.
The document summarizes the Analyze phase of a Lean Six Sigma project. It lists the tools and activities used in Analyze such as value stream mapping, root cause analysis, hypothesis testing, and prioritizing sources of waste. Graphs and examples are provided to illustrate how some of the tools are applied. The next steps outlined are to identify root causes, confirm the relationship between causes and outputs, estimate the impact of causes, and prioritize the root causes to address in the Improve phase.
The document outlines the analyze phase of a Lean Six Sigma project. It includes reviewing project charter and scope, identifying and prioritizing root causes through various tools like value stream mapping, Pareto analysis, hypothesis testing, and cause-and-effect matrices. Quick wins are targeted using tools like 5S, setup reduction, and Kaizen events. The phase culminates in a tollgate review to develop potential solutions before moving to the improve phase.
1. The document discusses the Measure phase of the DMAIC process for Six Sigma innovation projects.
2. Key aspects of the Measure phase include selecting Critical to Quality characteristics, defining performance standards and specifications, establishing a data collection plan, and validating measurement systems.
3. Tools discussed that are useful for the Measure phase include process mapping, fishbone diagrams, Pareto analysis, and Failure Mode and Effects Analysis (FMEA). FMEA involves identifying failure modes, causes, and effects to determine appropriate actions.
Value stream mapping is a practical and highly effective way to learn to see and resolve disconnects, redundancies, and gaps in how work gets done.
This VSM project template helps you and your project team to put together a "storyboard" for effective presentation to your key stakeholders. It includes four key phases:
1) Define and pick product/service family
2) Create a current state map
3) Develop a future state map
4) Develop an implementation plan
This document consists of a VSM project template in Powerpoint format and a set of Excel templates comprising VSM charter, Results table, Implementation Plan and common VSM icons.
Problem Statement:
Lower than expected billability, also described as Excessive Bench Capacity, results in chargeability variances and negatively impacts services margins by approximately $100,000,000 per year.
Goal Statement:
Improve billability from current 60% to 70% while maintaining planned fee adjustment. Corrective action plan will be prepared by June 200X, implemented by July 200X. Benefits will be evaluated 6 and 12 months following implementation.
The document discusses how the true cost of poor quality for many organizations is much higher than estimated at 10-20% of revenues. Traditional quality programs only account for visible failure costs and not hidden costs. A cloud-based audit platform like Beacon can significantly reduce administrative costs of quality programs while improving effectiveness through real-time insights. It allows for faster deployment, more consistent data collection, interactive reporting, and a reduction in audit management time by up to 85% compared to paper-based programs.
The document discusses the components of DMAIC, the methodology used in Six Sigma improvement projects. It begins by outlining some key requirements for Six Sigma projects, including leadership commitment, using facts to make decisions, and cross-functional team training. It then describes each stage of DMAIC - Define, Measure, Analyze, Improve, and Control - and lists some potential tools and activities used in each stage. The document concludes by listing several statistical tools that can be used throughout the Six Sigma improvement process.
Giacomo Squintani, PTC presenation at Spare Parts 2013Copperberg
"Spare Parts:from undervalued challengeto profit-boosting opportunity" Giacomo O. Squintani, Marketing Manager from PTC presentation at Spare Parts Business Platform 2013.
Find out more http://www.sparepartseurope.com/
The document discusses the Improve phase of the Lean Six Sigma methodology. It provides an overview of the key tools and activities used in the Improve phase, including identifying and prioritizing root causes, developing and selecting solutions, implementing pilots, and developing implementation plans. It also discusses tollgate reviews, which are checkpoints to review progress. The Improve phase aims to develop, test, and select solutions to address the root causes identified in the Analyze phase in order to meet the project goals.
The document discusses the Improve phase of the Lean Six Sigma methodology. It provides an overview of the key tools and activities used in the Improve phase, including identifying and prioritizing root causes, developing and selecting solutions, implementing pilots, and developing implementation plans. It also discusses tollgate reviews, which are checkpoints to review progress. The Improve phase aims to develop, test, and select solutions to address the root causes identified in the Analyze phase in order to meet the project goals.
FCB Partners Webinar: Measure What Matters FCBPartners
This document summarizes Steve Stanton's webinar on measuring processes effectively. It discusses how organizations often measure the wrong things that do not improve performance. Effective measurement requires understanding how processes create value and support business goals. It also requires mixing leading and lagging indicators. The document outlines principles of process measurement and provides examples from companies like Hilti that developed process scorecards linked to strategic objectives and key performance indicators.
- The document discusses Lean Sigma, a customer-focused strategy that integrates Six Sigma tools and Lean principles to improve processes and drive cultural change.
- It explains how to apply Lean Sigma using the DMAIC process (Define, Measure, Analyze, Improve, Control) to supplement validation activities and reduce costs.
- An example is given of using Lean Sigma tools like Critical to Quality measurements to design validation testing protocols focused on the customer's most important needs.
Similar to Managing Earnings at Asset Light 3PLs (20)
In a tight labour market, job-seekers gain bargaining power and leverage it into greater job quality—at least, that’s the conventional wisdom.
Michael, LMIC Economist, presented findings that reveal a weakened relationship between labour market tightness and job quality indicators following the pandemic. Labour market tightness coincided with growth in real wages for only a portion of workers: those in low-wage jobs requiring little education. Several factors—including labour market composition, worker and employer behaviour, and labour market practices—have contributed to the absence of worker benefits. These will be investigated further in future work.
Fabular Frames and the Four Ratio ProblemMajid Iqbal
Digital, interactive art showing the struggle of a society in providing for its present population while also saving planetary resources for future generations. Spread across several frames, the art is actually the rendering of real and speculative data. The stereographic projections change shape in response to prompts and provocations. Visitors interact with the model through speculative statements about how to increase savings across communities, regions, ecosystems and environments. Their fabulations combined with random noise, i.e. factors beyond control, have a dramatic effect on the societal transition. Things get better. Things get worse. The aim is to give visitors a new grasp and feel of the ongoing struggles in democracies around the world.
Stunning art in the small multiples format brings out the spatiotemporal nature of societal transitions, against backdrop issues such as energy, housing, waste, farmland and forest. In each frame we see hopeful and frightful interplays between spending and saving. Problems emerge when one of the two parts of the existential anaglyph rapidly shrinks like Arctic ice, as factors cross thresholds. Ecological wealth and intergenerational equity areFour at stake. Not enough spending could mean economic stress, social unrest and political conflict. Not enough saving and there will be climate breakdown and ‘bankruptcy’. So where does speculative design start and the gambling and betting end? Behind each fabular frame is a four ratio problem. Each ratio reflects the level of sacrifice and self-restraint a society is willing to accept, against promises of prosperity and freedom. Some values seem to stabilise a frame while others cause collapse. Get the ratios right and we can have it all. Get them wrong and things get more desperate.
Economic Risk Factor Update: June 2024 [SlideShare]Commonwealth
May’s reports showed signs of continued economic growth, said Sam Millette, director, fixed income, in his latest Economic Risk Factor Update.
For more market updates, subscribe to The Independent Market Observer at https://blog.commonwealth.com/independent-market-observer.
An accounting information system (AIS) refers to tools and systems designed for the collection and display of accounting information so accountants and executives can make informed decisions.
New Visa Rules for Tourists and Students in Thailand | Amit Kakkar Easy VisaAmit Kakkar
Discover essential details about Thailand's recent visa policy changes, tailored for tourists and students. Amit Kakkar Easy Visa provides a comprehensive overview of new requirements, application processes, and tips to ensure a smooth transition for all travelers.
Optimizing Net Interest Margin (NIM) in the Financial Sector (With Examples).pdfshruti1menon2
NIM is calculated as the difference between interest income earned and interest expenses paid, divided by interest-earning assets.
Importance: NIM serves as a critical measure of a financial institution's profitability and operational efficiency. It reflects how effectively the institution is utilizing its interest-earning assets to generate income while managing interest costs.
Dr. Alyce Su Cover Story - China's Investment Leadermsthrill
In World Expo 2010 Shanghai – the most visited Expo in the World History
https://www.britannica.com/event/Expo-Shanghai-2010
China’s official organizer of the Expo, CCPIT (China Council for the Promotion of International Trade https://en.ccpit.org/) has chosen Dr. Alyce Su as the Cover Person with Cover Story, in the Expo’s official magazine distributed throughout the Expo, showcasing China’s New Generation of Leaders to the World.
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Managing Earnings at Asset Light 3PLs
1. Managing Earnings at Asset Light
3PLs
The Route to Profit Maximization
1
Lean Transit – Greg W Stephens
Info@leantransit.com 904 333-4469
2. Discussion Objectives
2
The 3PL business environment
Characteristics of Profit Maximization for 3PLs
Profit Maximization and relationship to:
Market Segmentation
Process Control
Lean Processes
Constraints and implementation
3. 3PL Business Environment
3
A virtually perfect competitive business model.
Pre-tax earnings for 6 public 3PLs: 1-11% of revenue with
median at 4.8%. High performers – new markets
High variable cost to revenue: 70%+ not uncommon.
No long-term excess profits
Average efficiency firms improve to levels of high performers or go
out of business (e.g.TL carriers post 1980)
High performers become more efficient or expand into markets
Over time those market expansions and efficiencies are duplicated by
competitors.
4. Profit Maximization
4
Key output of profit maximization strategy for asset light firms
variable cost that correlates closely to revenue.
Processes that are on target with minimum variation
$-
$1.0
$2.0
$3.0
$4.0
$5.0
$6.0
$7.0
$8.0
Pd 1Pd 2Pd 3Pd 4Pd 5Pd 6Pd 7Pd 8Pd 9 Pd
10
Pd
11
Pd
12
Net Revenue
Variable Cost
$-
$1.0
$2.0
$3.0
$4.0
$5.0
$6.0
$7.0
$8.0
$9.0
$10.0
Pd 1Pd 2Pd 3Pd 4Pd 5Pd 6Pd 7Pd 8Pd 9 Pd
10
Pd
11
Pd
12
Net Revenue
Variable Cost
Two actual asset light transport companies: left side firm more stable
and higher pre-tax income and higher revenue to variable cost ratio.
5. Profit Maximization Tools and Techniques
5
Market Segmentation:
Segment portfolio into components that have similar
characteristics
Some version typically done at 3PLs
Examples include: Big Box, Grocery, Durables, Short Term
Consumables, Distribution Centers, Ocean Carriers
Weakness tends to be in using averages and comparisons to
budget, prior year, etc. to measure performance
A more useful way is to view the business in terms of it’s
contribution, volume, etc. (variability over time and to
process performance specs)
6. Traffic with a Narrow Distribution is Under
Control. Focus on out-of-control Traffic
6
0
10
20
30
40
50
60
$50 $70 $90 $110 $120 $130 $150 $170 $180 $210 $380 $480 $580
Mar-MayVolume
Contribution/Unit
Atlanta-Miami: Electronics
7. Price and Process Issues: Contribution tends to vary
from $20-$40/unit with a spread of $240. A view of
the ‘average’ isn’t meaningful.
7
0
5
10
15
20
25
30
35
40
45
50
($80) ($50) ($40) ($30) ($20) ($10) $0 $20 $30 $40 $50 $70 $90 $100 $110 $160
Mar-MayVolume
Contribution/Unit
Baltimore-South PA: Grocery
8. Contribution Average is not meaningful. Must look at
the profile over time and identify key drivers.
8
0
2
4
6
8
10
12
(340) (150) (40) (30) (20) (10) 20 30 40 60 70 80 90 100 110 150
VOLUME
CONTRIBUTION/UNIT
Jacksonville - Gainesville: Perishable Foods
MOVES
This side of the distribution is
driven by non-reimbursed
driver assessorial charges.
This side of the distribution is
driven by margin on driver
assessorial charges.
9. Alternative Views of Business are Useful
9
Segment Traffic with similar characteristics by location and at
an actionable level (Customer, O/D, Shipper, Consignee, etc.)
Repetitive vs Non-Repetitive (Ones’ andTwo’s)
Focus on managing repetitive traffic with zero execution
errors
Margins become price driven vs execution driven
Stable, Lost and New Traffic
How do the margins and handling characteristics of traffic
change over time?
Does the New traffic in the portfolio have fundamentally
different margins and characteristics of lost traffic.
Eroding margins on new traffic vs lost or stable traffic often are a
result of loss of competiveness for traffic with specific characteristics
10. Profit Maximization: Getting Paid for What
you do
10
Provide only those services that the customer is willing
to pay for (those you are contractually obligated to
provide.
Absolutely fundamental to high performers.
Can’t afford to sell a Lexus for a Kia price.
Eliminate components of processes that do not add value
(i.e. the customer won’t pay for)
Those process components are widespread in under
performing firms.
11. Focus on Control of Income Driving
Processes
11
Identify, map, and evaluate important processes
Processes are the use of inputs such as land, labor, equipment, and
systems to generate output.
Analytical view: business is a set of processes that generate income
In order to improve processes the following must happen:
Process is stable
Process data is normally distributed
Process capability can be measured
Change processes that are not capable of meeting specs
Design Experiments to quantify impact of process change
Use LEAN tools (TPS) to take out non-value added process
components
12. Process Data Tends to be and Should be
Normally Distributed
12
y = 0.0197x - 2.7993
R² = 0.9822
-3
-2
-1
0
1
2
3
32 82 132 182 232 282
Z
Normality Plot:Anderson Darling Method: Chicago Big Box Retailer
An Rsquared value of
0.8 is ‘normal’. There
are statistical methods
for ‘non-normal’ data.
13. Process data must be “In Control”
13
For an in-control process 100% of the data falls in a band 6
SDs wide; variations are normal in the process
An out-of-control process is characterized by special cause or
external variation (employee turnover, late trains)
Process capability can’t be measured or modified until a
process is ‘in-control’.
CL 58.6
UCL 147.9
LCL -30.6
(60)
(10)
40
90
140
190
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25
Contribution
Date/Time/Period
Process Control Chart :Atlanta
14. Process capability cannot be accurately
measured for processes not in control
14
Out of control process are not stable and thus the outputs are
not predictable.
Out-of-control processes are typically caused by data quality,
organizational instability (typically field staff), external factors,
and process design itself.
CL 297.3
UCL 628.5
0
100
200
300
400
500
600
700
800
100 200 300 400 500 600 700 800 900 100011001200130014001500160017001800190020002100220023002400 100 200
Range
Date/Time/Period
Contribution Profile over 24 Hour Period
15. A Process Must be able to Meet Target Specs
Consistently and with Minimum Variation: The
processes at Nashville have a 30% defect rate.
15
0
5
10
15
20
25
30
35
40
45
(369) (265) (161) (57) 47 151 255 360 464 568 672 776 880 984
Number
Contribution per Unit - Consumer Electronics
PROCESS CAPABILITY- NASHVILLE
LSL 50 USL 500
Mean 146
Median 140
Mode 140
n 125 Cp 0.44
Cpk 0.19
CpU 0.70
CpL 0.19
Cpm 0.35
Cr 2.26
ZTarget/DZ 0.76
Pp 0.44
Ppk 0.19
PpU 0.69
PpL 0.19
Skewness 0.58
Stdev 170
Min (265)
Max 880
Z Bench 0.52
% Defects 30.4%
PPM 304000.00
Expected 302829.70
Sigma 2.01
The LSC and USL
are the Lower and
Upper Spec Limits.
When the spec
limit falls inside the
distribution the
process is not
capable of meeting
requirements. Out
of spec data are
‘defects’.
16. Tools like Regression Identify Factors Driving
Performance. These tools are just as useful for
evaluation of commercial processes.
16
Rail Term Availability SO Receipt Drive Dispatch Term Time Drive Time Consignee Queue Service Quality
-0.5 12.2 3.1 0.47 2.9 0.25 1
1.1 24.6 2.7 0.54 2.7 0 1
0.9 13.7 3.2 0.96 3.1 0 1
1.6 22.1 5.3 0.48 2.6 0 2
4.2 4.2 0.8 1.7 3.8 1.3 3
1 15.6 2.8 1.1 2.4 0 1
2 48.5 4.7 0.36 1.9 0.7 2
1.4 12.7 3.8 0.9 2.6 0.2 2
6.2 2.3 0.7 2.1 3.5 0.9 3
-0.9 21.4 3.6 1.2 3.1 1.4 1
SUMMARY OUTPUT
Regression Statistics
Multiple R 0.991
R Square 0.982 Goodness of Fit >= 0.80
Adjusted R Square 0.945
Standard Error 0.192
Observations 10
P-value
0.134
0.002 Availability at Rail Terminal Significant Variable
0.049
0.082
0.064
0.295
0.022 Consignee Queue Significant Variable
Factors Impacting Consignee Delivery Performance
17. By eliminating non-significant factors one at a time
all the performance driving factors are isolated
17
Rail Term Availability SO Receipt Drive Dispatch Term Time Consignee Queue Service Quality
-0.5 12.2 3.1 0.47 0.25 1
1.1 24.6 2.7 0.54 0 1
0.9 13.7 3.2 0.96 0 1
1.6 22.1 5.3 0.48 0 2
4.2 4.2 0.8 1.7 1.3 3
1 15.6 2.8 1.1 0 1
2 48.5 4.7 0.36 0.7 2
1.4 12.7 3.8 0.9 0.2 2
6.2 2.3 0.7 2.1 0.9 3
-0.9 21.4 3.6 1.2 1.4 1
SUMMARY OUTPUT
Regression Statistics
Multiple R 0.986
R Square 0.972 Goodness of Fit >= 0.80
Adjusted R Square 0.937
Standard Error 0.206
Observations 10
Independent Variable P-value
Rail Term Availability 0.001 Eliminate Non-Significant "Causes"
SO Receipt 0.033 and you now have 4 signfificant factors
Drive Dispatch 0.047 Lower P Value indicates more signficant.
Term Time 0.072
Consignee Queue 0.012
Factors Impacting Consignee Delivery Performance
18. Design of Experiments can be used to test
Process Changes
18
Objective: Change process inputs to optimize process
outputs
Variety of methods available: requires absolute adherence
to design of the experiment
After the experiment an algebraic equation is used to set
the optimal inputs.
Not a trivial exercise (but doable) in service businesses
dependent on multiple vendors and non-controllable
factors. Often used in supply chain applications
Difficult to communicate visually.
19. There are many tools available for
forecasting trends in market factors
19
Multiple Regression Analysis: Used when two or more
independent factors are involved-widely used for intermediate
term forecasting.
Nonlinear Regression: Does not assume a linear
relationship between variables-frequently used when time is
the independent variable.
Trend/Time Series Analysis: Uses linear and nonlinear
regression with time as the explanatory variable-used where
patterns vary over time.
Decomposition Analysis: Used to identify several patterns
that appear simultaneously in a time series.Also used to de-
seasonalize data.
20. Once processes are under control and meet customer
specifications LEAN processes are used to increase
efficiency
20
LEAN: Invented in 1950s; also calledTPS (Toyota Production
System).
Core principle: Maximize customer value at minimum cost.
Used in both manufacturing and service industries.
Define value streams in business and take out every non-value
added step.
Involves development of ‘value stream’ maps
Used extensively in logistics, supply chain, and administrative
processes; often for information flow mapping and analysis
Firms also could benefit in administrative and field operations
processes.
21. Constraints and Implementation
21
Organization should be relatively stable
Restructuring, cutbacks, etc. create instabilities that make projects
not sustainable
Organize project into maximum 8-12 week sub projects
Continually demonstrate meaningful progress
Keeps team members focused
Use project as a mechanism to grow business profitability not cut
overheads
People will not cooperate if seen as a way to eliminate their job
Expert judgment required in every phase
Use Rapid Prototyping for initial development of IT components of
projects
Implementation in internal IT platform required for sustainability