This document outlines a Lean Six Sigma project to improve productivity and quality at a distribution center. It discusses defining the project goals of predicting order quantities and reducing picking errors. Data on line counts and errors will be collected and analyzed to identify trends and relationships. Improvement ideas like reducing bottlenecks and implementing mistake-proofing are proposed. Dashboards will be developed to monitor ongoing performance and ensure continuous improvement through the DMAIC process of define, measure, analyze, improve, and control.
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.
Convey the Lean Spirit in PowerPoint: detailed slides on the implementation of lean management methods and tools such as the Pull Principle, the 5S concept, Kanban and lean management charts.
Aggregate planning is intermediate-range production and capacity planning that covers 6 to 18 months. It matches market demand to company resources by developing a strategy to economically meet demand through establishing production rates and workforce levels. Aggregate planning uses composite products to simplify calculations and considers trade-offs between inventory levels and short-term capacity. It can take proactive or reactive approaches to coordinate marketing and production plans.
The document discusses Just-in-Time (JIT) manufacturing. It defines JIT as eliminating waste and continuously improving productivity. Key aspects of JIT include minimizing stock levels, goods only being produced to meet customer orders, and a close manufacturer-supplier relationship. JIT aims to maximize output at lowest unit cost through continuous flow processing and adherence to takt times. The founder of JIT was Taiichi Ohno at Toyota in the 1950s. Benefits of JIT include reduced costs and increased cash flow. Kanban is a scheduling system used with JIT to visually manage workflow and limit work-in-progress.
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 discusses pull systems and how they work. It defines pull systems as methods for controlling the flow of resources by replacing only what has been consumed. It contrasts this with push systems, which provide resources based on forecasts. It provides examples of how pull signals like cards or containers can be used to trigger the replenishment of consumed materials.
This document describes several Lean Six Sigma projects aimed at improving efficiency and reducing costs. It summarizes multiple projects including reducing packaging scrap, improving productivity in packaging and coil winding operations, reducing injection molding setup times, and implementing a warehouse management system. One project improved productivity from 240 to 331 packs per hour and reduced setup time from 30 minutes to under 5 minutes, realizing annual savings of $300,000.
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.
Convey the Lean Spirit in PowerPoint: detailed slides on the implementation of lean management methods and tools such as the Pull Principle, the 5S concept, Kanban and lean management charts.
Aggregate planning is intermediate-range production and capacity planning that covers 6 to 18 months. It matches market demand to company resources by developing a strategy to economically meet demand through establishing production rates and workforce levels. Aggregate planning uses composite products to simplify calculations and considers trade-offs between inventory levels and short-term capacity. It can take proactive or reactive approaches to coordinate marketing and production plans.
The document discusses Just-in-Time (JIT) manufacturing. It defines JIT as eliminating waste and continuously improving productivity. Key aspects of JIT include minimizing stock levels, goods only being produced to meet customer orders, and a close manufacturer-supplier relationship. JIT aims to maximize output at lowest unit cost through continuous flow processing and adherence to takt times. The founder of JIT was Taiichi Ohno at Toyota in the 1950s. Benefits of JIT include reduced costs and increased cash flow. Kanban is a scheduling system used with JIT to visually manage workflow and limit work-in-progress.
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 discusses pull systems and how they work. It defines pull systems as methods for controlling the flow of resources by replacing only what has been consumed. It contrasts this with push systems, which provide resources based on forecasts. It provides examples of how pull signals like cards or containers can be used to trigger the replenishment of consumed materials.
This document describes several Lean Six Sigma projects aimed at improving efficiency and reducing costs. It summarizes multiple projects including reducing packaging scrap, improving productivity in packaging and coil winding operations, reducing injection molding setup times, and implementing a warehouse management system. One project improved productivity from 240 to 331 packs per hour and reduced setup time from 30 minutes to under 5 minutes, realizing annual savings of $300,000.
Process planning SMED and VSM: Single minute exchange of die and Value stream...Yatinkumar Patel
in this presentation, two methods are described which is a very useful tool for process planning and production scheduling.
also, there are examples of this methods are well described.
The Seven Basic Tools of Quality (also known as 7 QC Tools) originated in Japan when the country was undergoing major quality revolution and had become a mandatory topic as part of Japanese’s industrial training program. These tools which comprised of simple graphical and statistical techniques were helpful in solving critical quality related issues. These tools were often referred as Seven Basics Tools of Quality because these tools could be implemented by any person with very basic training in statistics and were simple to apply to solve quality-related complex issues.
Implementing Kanban Pull Systems in Office & Service EnvironmentsTKMG, Inc.
Recorded webinar: http://slidesha.re/1jXv10D
Subscribe: http://www.ksmartin.com/subscribe
Karen’s Books: http://ksmartin.com/books
A brief overview of how to establish a simple two-bin kanban pull system for controlled inventory management.
This document discusses daily work management (DWM) and how it can be used to improve continuous improvement efforts like kaizen. It explains that DWM involves establishing managing points and checking points to monitor daily work. This provides visibility into operations and allows for timely course corrections. The document provides examples of managing and checking point tables and emphasizes that DWM should be integrated into daily work rather than seen as a separate activity. Regular reviews of metrics and goal-setting are presented as important aspects of effective DWM.
This document provides an overview of 12 lean manufacturing tools: Kaizen, Jidoka, Poka Yoke, Visual Management, Kanban, Demand Management, Heijunka, Just in Time, Takt Time, Bottleneck Analysis, Andon, and Gemba. It describes the purpose and key aspects of each tool, how they are implemented, and the benefits they provide for improving production efficiency and eliminating waste.
Kanban is a scheduling system used in lean manufacturing to control work in process inventory and optimize production. It tells producers what to make, when to make it, and how much to make based on customer demand. There are different types of kanbans including raw material, work in process, and finished goods kanbans. Kanbans work by signaling when more inventory is needed to replenish bins and keep just the right amount of materials and products flowing through the production process. The goal is smooth and efficient production without waste.
Overall Equipment Effectiveness (OEE) measures the efficiency of machines during their loading time. OEE figures are determined by combining the availability and performance of equipment with the quality of parts made. Availability is affected by planned and unplanned downtime. Performance considers the actual speed of the machine compared to the ideal cycle time. Quality yield looks at the total quantity of good parts produced compared to the total processed. An OEE calculation takes the product of these three factors - availability, performance, and quality yield - to determine the overall equipment effectiveness percentage.
Lead time takt time cycle time and throughputHpm India
The document defines and compares various production timing metrics:
- Takt time is the rate at which a product must be completed to meet customer demand, calculated as total available production time divided by average customer demand.
- Throughput time is the actual time taken to manufacture a product from start to finish, including processing, movement, inspection, and wait times.
- Lead time refers to the total time from when a customer places an order to when the final product is received.
Service revamp lean six sigma black belt projectSumit K Jha
Project- Service revamp
Type- Lean Six Sigma Black Belt Project
Outline- To improve the entire process of getting purchase orders, purchasing, manufacturing, warehousing and installation
Tools/Framework- Six Sigma concepts such as SIPOC, fish bone analysis, control charts and hypothesis testing; statistical tools, Microsoft Dynamic AX
Role- Project manager
Outcome- The successful completion of the project yielded in cost savings of INR 1.61 crores
Know about Just-In-Time and Lean manufacturing system. Find benefits and difference between JIT and Lean Manufacturing by Nilesh Arora, a founder of AddValue Consulting Inc.
Role of production planning and control in operation managementRiya Sunny
Planning and Control are very important for success of an operation unit. For effective operation in a manufacturing unit, it is essential to integrate the production ...
This document discusses various aspects of material management including objectives, activities, forecasting techniques, and material management improvement systems. The key objectives of material management are low cost, high service levels, quality assurance and low levels of tied-up capital while supporting other functions. Material management involves purchasing, production control, logistics, warehousing, inventory planning and disposal. Improvement systems discussed include Just-in-Time (JIT), Material Requirements Planning (MRP I, MRP II), and Distribution Requirements Planning (DRP I, DRP II) which aim to minimize inventory while maintaining production through quantitative and quality focused approaches.
Material Requirement planning (factors,inputs,outputs,benifits)razinbabaria786
MRP is a computerized system that converts a master production schedule into detailed procurement schedules for raw materials and vendor components. It aims to ensure the right quantity of materials are available at the right time to efficiently produce the required quantity of finished products while minimizing inventory levels. MRP takes into account factors like dependent/independent demands, lumpy demand, lead times, and common use items. Its key outputs include planned order releases, work orders, purchase orders, and rescheduling/cancellation notices.
This document summarizes a value stream mapping workshop for the Acme Stamping Company. It describes developing a current state map that follows a product family's production from stamping through assembly. Key aspects include identifying waste, inventory levels, changeover times and process reliability. The future state map designs a continuous lean flow, including establishing a takt time, welding/assembly cell and finished goods supermarket. It identifies necessary process improvements like reducing changeover times and improving uptime. An implementation plan is outlined to transition from the current to future state through kaizen events.
This document discusses the importance of daily work management. It states that without proper daily management, things will deteriorate over time. It outlines three levels of workers - level 1 focuses on retention and maintenance, level 2 on continuous improvement, and level 3 on breakthroughs. The document then discusses concepts like total quality management, 5S, standardization, exactness, simplification, and visual management that are important aspects of daily work management. It emphasizes the need for 100% employee involvement and elimination of variances to achieve continual improvement.
This document discusses the principles of lean manufacturing and value-added activities. It defines value-added activities as those that transform a product and that a customer is willing to pay for. The document outlines the goals of lean manufacturing as improving quality, reducing time and costs, and eliminating waste. It also discusses key lean concepts like continuous flow, pull-based production, and continuous improvement.
Quality Circles are small groups of employees that regularly meet to identify, analyze, and solve work-related problems. They were originally developed in Japan in the 1950s as a participative management technique and problem-solving method. Quality Circles aim to improve workplace practices, productivity, and morale through group discussion and identifying issues that can then be presented to management. An example of successful Quality Circles is their implementation in schools through Student Quality Circles, which were first developed in India and have since spread to other countries.
VSM - Value Stream Mapping for made-to-order manufacturingJessica Mitchell
Value stream mapping (VSM) is a lean manufacturing technique used to analyze and design the flow of materials and information required to bring a product to a customer. It involves mapping both the current state and future state of the value stream. The current state map documents all steps, information flows, and delays in the production process. The future state map proposes improvements to reduce waste and enable continuous flow and pull between steps. Key aspects of VSM include identifying product families, analyzing takt time, developing continuous flow where possible, identifying the pacemaker process, and using load leveling to smooth production.
The document provides an overview of value stream mapping (VSM) process. It discusses defining the current state and future state maps which involve mapping the material and information flows, identifying value-added and non-value added activities, calculating metrics like cycle time and takt time, and developing an implementation plan to eliminate waste and create flow. The future state aims to optimize processes, improve flow, implement pull systems, and achieve continuous improvement through periodic reviews.
The document discusses supply chain management. It defines a supply chain as the system involved in moving products from suppliers to customers, including organizations, activities, and resources. Supply chain management involves planning, implementing, and controlling supply chain operations to efficiently meet customer demands. It encompasses sourcing, procurement, production, and logistics management as well as coordination with supply chain partners. The goals of efficient supply chain management are revenue growth, better asset utilization, and cost reduction.
It was really excited to run my First Lean Six Sigma Black Belt Project in my factory . And during the project im really great full to my honorable management . Now im posting this project for the audience of this site .
The document outlines a Six Sigma project to address high shorted percentages in cable drums produced by a cable manufacturing company. It defines the problem as shorted percentages being over 2% for the past two months versus the target of 1.3%. The goal is to decrease the shorted percentage to the target of 1.3% or less. It then outlines the Define, Measure, Analyze, Improve and Control phases of the project including developing a charter, collecting data on shorted drums, analyzing potential causes using a cause-and-effect diagram, and conducting hypothesis tests to determine relationships between variables.
Process planning SMED and VSM: Single minute exchange of die and Value stream...Yatinkumar Patel
in this presentation, two methods are described which is a very useful tool for process planning and production scheduling.
also, there are examples of this methods are well described.
The Seven Basic Tools of Quality (also known as 7 QC Tools) originated in Japan when the country was undergoing major quality revolution and had become a mandatory topic as part of Japanese’s industrial training program. These tools which comprised of simple graphical and statistical techniques were helpful in solving critical quality related issues. These tools were often referred as Seven Basics Tools of Quality because these tools could be implemented by any person with very basic training in statistics and were simple to apply to solve quality-related complex issues.
Implementing Kanban Pull Systems in Office & Service EnvironmentsTKMG, Inc.
Recorded webinar: http://slidesha.re/1jXv10D
Subscribe: http://www.ksmartin.com/subscribe
Karen’s Books: http://ksmartin.com/books
A brief overview of how to establish a simple two-bin kanban pull system for controlled inventory management.
This document discusses daily work management (DWM) and how it can be used to improve continuous improvement efforts like kaizen. It explains that DWM involves establishing managing points and checking points to monitor daily work. This provides visibility into operations and allows for timely course corrections. The document provides examples of managing and checking point tables and emphasizes that DWM should be integrated into daily work rather than seen as a separate activity. Regular reviews of metrics and goal-setting are presented as important aspects of effective DWM.
This document provides an overview of 12 lean manufacturing tools: Kaizen, Jidoka, Poka Yoke, Visual Management, Kanban, Demand Management, Heijunka, Just in Time, Takt Time, Bottleneck Analysis, Andon, and Gemba. It describes the purpose and key aspects of each tool, how they are implemented, and the benefits they provide for improving production efficiency and eliminating waste.
Kanban is a scheduling system used in lean manufacturing to control work in process inventory and optimize production. It tells producers what to make, when to make it, and how much to make based on customer demand. There are different types of kanbans including raw material, work in process, and finished goods kanbans. Kanbans work by signaling when more inventory is needed to replenish bins and keep just the right amount of materials and products flowing through the production process. The goal is smooth and efficient production without waste.
Overall Equipment Effectiveness (OEE) measures the efficiency of machines during their loading time. OEE figures are determined by combining the availability and performance of equipment with the quality of parts made. Availability is affected by planned and unplanned downtime. Performance considers the actual speed of the machine compared to the ideal cycle time. Quality yield looks at the total quantity of good parts produced compared to the total processed. An OEE calculation takes the product of these three factors - availability, performance, and quality yield - to determine the overall equipment effectiveness percentage.
Lead time takt time cycle time and throughputHpm India
The document defines and compares various production timing metrics:
- Takt time is the rate at which a product must be completed to meet customer demand, calculated as total available production time divided by average customer demand.
- Throughput time is the actual time taken to manufacture a product from start to finish, including processing, movement, inspection, and wait times.
- Lead time refers to the total time from when a customer places an order to when the final product is received.
Service revamp lean six sigma black belt projectSumit K Jha
Project- Service revamp
Type- Lean Six Sigma Black Belt Project
Outline- To improve the entire process of getting purchase orders, purchasing, manufacturing, warehousing and installation
Tools/Framework- Six Sigma concepts such as SIPOC, fish bone analysis, control charts and hypothesis testing; statistical tools, Microsoft Dynamic AX
Role- Project manager
Outcome- The successful completion of the project yielded in cost savings of INR 1.61 crores
Know about Just-In-Time and Lean manufacturing system. Find benefits and difference between JIT and Lean Manufacturing by Nilesh Arora, a founder of AddValue Consulting Inc.
Role of production planning and control in operation managementRiya Sunny
Planning and Control are very important for success of an operation unit. For effective operation in a manufacturing unit, it is essential to integrate the production ...
This document discusses various aspects of material management including objectives, activities, forecasting techniques, and material management improvement systems. The key objectives of material management are low cost, high service levels, quality assurance and low levels of tied-up capital while supporting other functions. Material management involves purchasing, production control, logistics, warehousing, inventory planning and disposal. Improvement systems discussed include Just-in-Time (JIT), Material Requirements Planning (MRP I, MRP II), and Distribution Requirements Planning (DRP I, DRP II) which aim to minimize inventory while maintaining production through quantitative and quality focused approaches.
Material Requirement planning (factors,inputs,outputs,benifits)razinbabaria786
MRP is a computerized system that converts a master production schedule into detailed procurement schedules for raw materials and vendor components. It aims to ensure the right quantity of materials are available at the right time to efficiently produce the required quantity of finished products while minimizing inventory levels. MRP takes into account factors like dependent/independent demands, lumpy demand, lead times, and common use items. Its key outputs include planned order releases, work orders, purchase orders, and rescheduling/cancellation notices.
This document summarizes a value stream mapping workshop for the Acme Stamping Company. It describes developing a current state map that follows a product family's production from stamping through assembly. Key aspects include identifying waste, inventory levels, changeover times and process reliability. The future state map designs a continuous lean flow, including establishing a takt time, welding/assembly cell and finished goods supermarket. It identifies necessary process improvements like reducing changeover times and improving uptime. An implementation plan is outlined to transition from the current to future state through kaizen events.
This document discusses the importance of daily work management. It states that without proper daily management, things will deteriorate over time. It outlines three levels of workers - level 1 focuses on retention and maintenance, level 2 on continuous improvement, and level 3 on breakthroughs. The document then discusses concepts like total quality management, 5S, standardization, exactness, simplification, and visual management that are important aspects of daily work management. It emphasizes the need for 100% employee involvement and elimination of variances to achieve continual improvement.
This document discusses the principles of lean manufacturing and value-added activities. It defines value-added activities as those that transform a product and that a customer is willing to pay for. The document outlines the goals of lean manufacturing as improving quality, reducing time and costs, and eliminating waste. It also discusses key lean concepts like continuous flow, pull-based production, and continuous improvement.
Quality Circles are small groups of employees that regularly meet to identify, analyze, and solve work-related problems. They were originally developed in Japan in the 1950s as a participative management technique and problem-solving method. Quality Circles aim to improve workplace practices, productivity, and morale through group discussion and identifying issues that can then be presented to management. An example of successful Quality Circles is their implementation in schools through Student Quality Circles, which were first developed in India and have since spread to other countries.
VSM - Value Stream Mapping for made-to-order manufacturingJessica Mitchell
Value stream mapping (VSM) is a lean manufacturing technique used to analyze and design the flow of materials and information required to bring a product to a customer. It involves mapping both the current state and future state of the value stream. The current state map documents all steps, information flows, and delays in the production process. The future state map proposes improvements to reduce waste and enable continuous flow and pull between steps. Key aspects of VSM include identifying product families, analyzing takt time, developing continuous flow where possible, identifying the pacemaker process, and using load leveling to smooth production.
The document provides an overview of value stream mapping (VSM) process. It discusses defining the current state and future state maps which involve mapping the material and information flows, identifying value-added and non-value added activities, calculating metrics like cycle time and takt time, and developing an implementation plan to eliminate waste and create flow. The future state aims to optimize processes, improve flow, implement pull systems, and achieve continuous improvement through periodic reviews.
The document discusses supply chain management. It defines a supply chain as the system involved in moving products from suppliers to customers, including organizations, activities, and resources. Supply chain management involves planning, implementing, and controlling supply chain operations to efficiently meet customer demands. It encompasses sourcing, procurement, production, and logistics management as well as coordination with supply chain partners. The goals of efficient supply chain management are revenue growth, better asset utilization, and cost reduction.
It was really excited to run my First Lean Six Sigma Black Belt Project in my factory . And during the project im really great full to my honorable management . Now im posting this project for the audience of this site .
The document outlines a Six Sigma project to address high shorted percentages in cable drums produced by a cable manufacturing company. It defines the problem as shorted percentages being over 2% for the past two months versus the target of 1.3%. The goal is to decrease the shorted percentage to the target of 1.3% or less. It then outlines the Define, Measure, Analyze, Improve and Control phases of the project including developing a charter, collecting data on shorted drums, analyzing potential causes using a cause-and-effect diagram, and conducting hypothesis tests to determine relationships between variables.
This document discusses improving on-time delivery for customers. It begins by classifying customers into A, B, and C categories based on revenue. It then discusses standard lead times and explores improving on-time delivery through setting SMART goals, analyzing current performance, and addressing issues like variable lead times and improper planning. Solutions proposed include formalizing order promising processes, focusing on bottlenecks, and implementing a systematic approach using tools like MRP and metrics. Actual results showing improved on-time delivery are presented.
Effective customer service is key to business success. It includes fulfilling orders accurately and on-time, dealing with complaints, and prioritizing customer satisfaction to encourage repeat purchases. Businesses must have sufficient resources like staff, inventory, and capital to meet customer demand and complete orders as expected. Proper management is also needed to coordinate employees and production. Satisfied customers will return and bring others, greatly impacting long-term profits.
For many businesses, getting the material from suppliers on time is a very important factor. This will decide their delivery to customers on time. As many companies in North America are procuring from China, it is all the more essential that the On Time Delivery is controlled efficiently. This presentation discusses the ways and means companies con control the On Time Delivery Metrics. This presentation also talks about a system that is common for all the trading partners and one in the cloud.
Six sigma is a statistical approach to process improvement that aims to reduce defects. It was developed by Motorola in the 1970s to improve quality. The six sigma method includes phases such as Define, Measure, Analyze, Improve, and Control to identify and remove defects in processes. It uses statistical tools and follows a DMAIC or DMADV model. While six sigma aims to improve processes and reduce defects, some critics argue it is more focused on appraisal than prevention and does not always yield quality improvements.
The project analyzed and measured the Individual Mobilization Augmentee (IMA) and Reserves reenlistment and extension process. Key improvements included reducing the number of extension steps by 90% and standardizing the process through a new Standard Operating Procedure. This led to quicker monitoring, identification, and accession of qualified reenlistees.
In today’s economy, most companies are unable to pay less for what they buy, and unable to charge more for what they sell. So how is a company able to impact the bottom line? One good way is by transitioning to Lean Distribution operations.
Lean distribution is based on the same philosophy and concepts that came out of the Lean manufacturing wave, so popular with companies, as a way to optimize production operations.
This webinar will cover:
•What “Lean” means in distribution operations
•The benefits of Lean distribution
•The process for transitioning to a Lean distribution operation
•How Lean can impact various activities in the distribution center
Educational presentation for medical laboratory technologists on how to create a lean culture in their workplace to improve the healthcare service by minimizing waste and enhancing work effeciency. An example in this presentation is about minimizing patient's wait time in the laboratory reception area.
The Role of Lean Six Sigma in Contact CentersArt Hall
This document discusses how contact centers can apply Lean Six Sigma methodologies to improve processes and customer satisfaction while reducing costs. It covers preparing a contact center for Lean Six Sigma, applying the techniques, challenges to avoid, and success factors. Case studies show how Lean Six Sigma helped reduce nuisance calls, streamline customer onboarding, and improve a new online payment feature launch. Training employees, executive support, and viewing the contact center holistically are emphasized as critical success factors.
The document summarizes key points from a Lean warehouse distribution team meeting held on March 7, 2008. It discusses the constant pursuit of waste reduction and important Lean principles like overproduction, inventory, repairs/rejects, motion, processing, waiting, and transport. The team is asked to involve themselves in making the warehouse Lean through tools and by focusing on put-away accuracy, pick accuracy, meet pick times, quality raw materials, motion efficiency, processing standards, and avoiding waiting.
The current state value stream map of a warehouse operation shows material and information flows from suppliers and production to customers. It identifies issues like excess inventory, inaccurate inventory counts, and lack of space that require the warehouse to expand. Applying lean concepts through value stream mapping can help assess the operation, identify waste and improvements, and develop a future state plan to address challenges.
LEAN SIX SIGMA CANVAS: A Universal Problem Solving (UPS) Worksheet for Lean S...Rod King, Ph.D.
The document describes a Lean Six Sigma Canvas worksheet for applying the DMAIC cycle to projects. The DMAIC cycle includes the phases of Define, Measure, Analyze, Improve and Control. The canvas provides a visual framework to guide teams through problem solving and continuous improvement processes. It aims to maximize customer delight and minimize customer pain.
Comment réduire les délais d'examen des dossiers agricoles ? C'est la résolution de problème que Pierre-Alain Morel, responsable de l'agence BCA Expertise de St Omer a présenté au Lean Tour Bruxelles. Jean-Yves Bedu, directeur de la qualité et de l'organisation a complété la présentation en expliquant comment l'on fait du Lean au sein de l'entreprise depuis 2011.
Six sigma project_-_Call Centre Quality improvement Vijay Baunthiyal
The document outlines a Six Sigma project to improve quality scores in a call center process. Key details include:
- Quality scores have been below target of 90% for the last 6 months, averaging 86%.
- The objective is to identify variables influencing quality and sustain improvements to reach the 90% target.
- Primary metric is internal call quality. Secondary metric is average handling time.
- Data collection and analysis identified potential factors like call type, duration, trainers, feedback delivery, team leaders, shifts, and first call resolution.
This document outlines the steps and deliverables for a project aimed at reducing attrition rates. Key deliverables include process maps, measurement plans, and analysis of impacting factors. Analysis identified four statistically significant factors impacting attrition: poor facilities/food quality, hiring overqualified resources, better opportunities elsewhere, and overtime compensation. These factors will be focused on in the improvement phase to develop solutions for reducing attrition rates.
The document provides an overview of Six Sigma management. It defines Six Sigma as a statistical concept that measures quality in terms of defects, with the goal of 3.4 defects per million opportunities. It describes the Six Sigma phases of Define, Measure, Analyze, Improve, and Control (DMAIC). Key tools for Six Sigma include process mapping, design of experiments, measurement system analysis, and control plans. Critical roles include Champions, Master Black Belts, Black Belts, and Green Belts. Implementing Six Sigma can help reduce costs and improve customer satisfaction, quality, and competitive advantage.
KPIs in project management are measurable metrics used to assess project success. They include on-time delivery, budget adherence, scope control, resource efficiency, risk management, quality of deliverables, stakeholder satisfaction, team productivity, issue resolution time, and customer feedback. Monitoring these indicators enables data-driven decisions and ensures project success.
When it comes to managing data, USA's leading bank, banks on us.Mindtree Ltd.
Banks need to ensure quality, consistency and precision of data that is fed into their mission-critical applications. This is possible only with a robust and scalable Business Intelligence (BI) solution.
Here’s how Mindtree helped a leading US bank manage their data, more effectively and efficiently.
Sakshi Mehrotra has over 7 years of experience in data analytics and management. She has a strong background in identifying insights from data, statistical analysis, and all stages of the data analytics lifecycle. At her current role at Tolexo India, she helped establish their reporting structure and has delivered data-driven strategies to increase customer revenue. Previously she held roles analyzing large datasets, automating reporting processes, and developing tools to improve business operations.
Lean Six Sigma project management aims to streamline projects with higher predictability and lower variations than traditional project management. It focuses on eliminating waste and non-value-added steps through a DMAIC process of defining opportunities, measuring key metrics, analyzing processes, improving processes by eliminating sources of variation, and controlling performance. Lean Six Sigma projects emphasize continuous improvement through small experiments, empowered cross-functional teams, and a pull-based approach driven by customer demand.
Lean Six Sigma Project Management Oct11th2010[ (1)Arunima Thakur
Lean Six Sigma project management aims to streamline projects with higher predictability and lower variations than traditional project management. It focuses on eliminating waste and non-value-added steps through a DMAIC process of defining opportunities, measuring key metrics, analyzing processes, improving processes by eliminating sources of variation, and controlling performance. Lean Six Sigma projects emphasize continuous improvement through small experiments, empowered cross-functional teams, and a pull-based approach driven by customer demand.
This document discusses data management and integration. It begins by defining data management as planning, controlling, and delivering data and information assets. It then contrasts the traditional system development lifecycle with the data lifecycle. The document proposes using agile methodology to transform the traditional lifecycle to better handle modern data integration demands. It provides an example of how agile components like story writing and estimation can be applied to a data integration project involving a new data source for an enterprise data warehouse.
Varun Kumar has over 11 years of experience in operations management, process management, client relationship management, and data management. He has worked at AON Services India Pvt. Ltd. for over 11 years, currently as an Assistant Manager in the Retirement department. His responsibilities include MIS operations, process management, and providing support to management. He has led various projects focused on business operations, quality improvement, and reporting and analytics.
The document outlines a roadmap for defining project metrics and measures to track project success. It discusses establishing governance and scope, identifying key metrics, collecting baseline data, setting benchmarks and targets, reporting processes, implementation, and review. Metrics should be clearly defined, agreed upon, and tied to business goals to provide a common understanding of project status and performance.
The document discusses various tools used for Corrective and Preventive Actions (CAPA), including DMAIC, Rubric, 8D, and DFSS. DMAIC is a five-step process for problem solving: Define, Measure, Analyze, Improve, Control. It involves defining problems, collecting data, analyzing causes, improving solutions, and controlling to prevent recurrence. Other tools discussed provide frameworks for investigating problems, finding root causes, and verifying solutions.
Talent Q provides online psychometric assessments called Dimensions and Elements that measure personality traits and abilities. [1] The assessments can be used for screening, selection, development, and other talent decisions. [2] They are quick to complete, adaptable, and provide data to inform various talent processes. [3] Organizations see returns through improved predictions of job performance, lower costs from streamlined processes, and better matching of candidates to roles.
This document provides an overview of Six Sigma and operational excellence. It defines Six Sigma as a management methodology that is customer-focused, data-driven, and aims for breakthrough performance gains and validated bottom line results. The document outlines the Define, Measure, Analyze, Improve, Control (DMAIC) methodology and how it relates to process improvement tools like Lean, Theory of Constraints, and Total Quality Management. It also provides examples of implementing a Six Sigma project, including defining the problem statement, measuring key metrics, analyzing data to identify root causes, improving the process, and controlling the results.
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Vishnu Teja Bhavirisetty has over 5 years of experience in industrial engineering. He has a Master's degree in Industrial Engineering from the University of Texas at Arlington and a Bachelor's degree in Electronics and Instrumentation Engineering from SCSVMV University in India. He has skills in programming, CAD software, SAP, Lean manufacturing, and Six Sigma. His experience includes projects in facilities planning, process improvement, material handling, and production and inventory control.
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This document discusses improving service quality and productivity. It begins with an agenda that outlines integrating quality and productivity strategies to achieve long-term profitability by delivering high quality experiences to customers more efficiently. The document then covers topics such as defining and measuring service quality and productivity, tools to analyze quality problems, and strategies to improve quality such as addressing gaps in service and implementing quality frameworks like ISO 9000 and Six Sigma. It emphasizes that quality and productivity improvements should focus on redesigning customer service processes to boost both service quality and efficiency.
Similar to Six Sigma Project on Distribution Efficiency (20)
Improving Service Quality and Productivity - Service Marketing
Six Sigma Project on Distribution Efficiency
1. Project 3: Lean Six Sigma & BI
Distribution Center
Productivity and Quality
MGS 8020
Group 2: At:
Adam Griff
Yisi Lu
Matt Tinaglia
12/1/2011
2. Lean Six Sigma
Continuous Improvement Method
D • DEFINE
M • MEASURE
A • ANALYZE
I • IMPROVE
C • CONTROL
3. DEFINE: Executive Summary M
A
• Project Status: I
There is a strong need to be able to predict and track trends in
ordering quantities (lines) month-to-month. There is also the C
need to better control quality via material handler picking errors.
• Current State:
Line counts per material handler are manually counted daily
when time allows. Errors are also tracked only semi-
automatically via a Shipping Discrepancy Report (SDR) relying
on customer feedback.
• Findings/Accomplishments:
Alternatives identified, risks assessed, and important Metrics
defined.
• Next Steps:
Initiate a DMAIC project and begin taking measurements for
process improvement for data analysis.
4. DEFINE: Using Business Intelligence M
A
• Enhance Process Improvement: I
Be able to see data that is updated on a daily basis and see the C
development of long-term trends.
• Enhance Leadership Decision Making:
Up-to-date view on material handler quality and line quantities
to allow for staffing improvements and/or reassignments.
5. DEFINE: LSS Tool M
A
• Process Mapping: To understand the process and I
identify value-added steps and opportunities for C
improvement:
Order Processing
Distributed to material
Order placed Delivery prints off
handlers (MH)
Parts Packaging
Parts packaged and confirmed in SAP
Parts picked from storage areas
by MH
Shipping
Packages brought to Processed with UPS Picked up by carriers for
shipping station software delivery
6. D
MEASURE: Executive Summary
A
• Project Status: I
Begin compiling data that has been collected for daily-monthly line
C
counts and picking errors per material handler from the SDR.
• Current State:
Monthly line counts are unpredictable, there is no established
process for providing feedback to handlers regarding picking
quality.
• Findings/Accomplishments:
Data collected for 5 years of monthly line counts and up to 12
months for material handler picking errors.
• Next Steps:
Begin analyzing the data we have collected to identify trends and
material handlers with high error levels/low quality.
7. D
MEASURE: Using Business Intelligence
A
• Enhance Process Improvement: I
By tracking attribute (picking errors) and variable (line C
counts/order quantity) data to get a well rounded and complete
look at the process and develop basic Control Charts.
• Enhance Leadership Decision Making:
Allowing us to hear the ‘Voice of the Process’ will lead us to
better identify the expected vs. unexpected variation and make
the right decisions on how to reduce that which is unexpected.
8. D
MEASURE: LSS Tool Company Business Performance
Metric Unit KPIs of Service
A
Total lines by
Productivity
• Control Charts: Efficiency/
Accuracy
Month and Year
I
Identify Measurements Error Rates vs.
Line Counts/
C
and Collect data
Quality Working Days/
Months
9. D
ANALYZE: Executive Summary M
• Project Status: I
Data has been collected and compiled for error rates and line counts
per month. Data has been analyzed to look for patterns indicating C
any relationship between these two metrics and any trends in line
counts over longer periods of time.
• Current State:
No data analysis has been done on these metrics previously, only
measurements taken.
• Findings/Accomplishments:
An expected increase in average picking errors along with higher
line counts was not found in the data. Year-to-year trending was
seen with high and low months identified.
• Next Steps:
Form interpretations from data analysis and formulate ways to
improve upon line count trend visibility and reduction of picking
errors.
10. D
ANALYZE: Using Business Intelligence M
• Enhance Process Improvement: I
By allowing us to identify the Material Handlers that need C
improvement in picking errors and understand the
relationship(s) that exist between line counts and error rate.
• Enhance Leadership Decision Making:
By allowing us to make appropriate staffing decisions based on
historical trends of line counts, as well as identifying Handlers
for additional training or replacement based on Picking error
rate, all in the context of comparison against ‘World-Class’
Benchmarks.
11. D
ANALYZE: LSS Tools M
• Benchmarking: Using the established Benchmark I
of the ‘best warehouse operators in the US have C
shipping accuracy near or at 99.97%*’
Overall Shipping Accuracy
100.00%
Benchmark 99.97%
99.90%
Accuracy =
1-(Errors / Lines)
99.80%
99.70%
99.60%
99.50%
Nov-10 Dec-10 Jan-11 Feb-11 Mar-11 Apr-11 May-11 Jun-11 Jul-11 Aug-11 Sep-11 Oct-11
*World Class Warehousing and Material Handling, Frazelle, 2001, pg. 55
12. D
ANALYZE: LSS Tools M
• Regression: To describe the linear relationship I
between the independent variable (line count) and C
dependent variable (errors).
Monthly Errors vs. Line Count Low R2
30,000
coefficient of
25,000
determination
value, little
correlation
Monthly Line Count
20,000
R² = 0.003
observed in
15,000
explaining
10,000 variation
5,000
0
0 5 10 15 20 25
Number of Errors per Month
13. D
IMPROVE: Executive Summary M
A
• Project Status:
Brainstorm on improvement methods to better predict line counts
C
and reduce picking errors.
• Current State:
Staffing is adjusted through temporary workers based on perceived
quality and there is no mistake-proofing in place to help with
picking errors.
• Findings/Accomplishments:
Identified ways to reduce bottlenecks and implement some Poka-
yoke’s.
• Next Steps:
Use developed BI system as a Control method for monitoring
future performance.
14. D
IMPROVE: Using Business Intelligence M
A
• Enhance Process Improvement:
By allowing us to identify areas in the process best suited to C
mistake-proofing for prevention and opening up bottlenecks.
• Enhance Leadership Decision Making:
By allowing us to envision and improved Future state and
identify and evaluate the Risks involved in moving toward that
state.
15. D
IMPROVE: LSS Tools M
A
• Reduce Bottlenecks:
C
• Improve material handler productivity
• Cross-training
• Overtime
• Mistake Proofing:
• Prevention- stocking locations in fixed, rounded
quantities; pick by bar-code scanner.
• Detection- Already exists through SDR, but response
time and automation can be improved.
16. D
CONTROL: Executive Summary M
A
• Project Status: I
Introduce controls to monitor the process and error count going
forward.
• Current State:
Line counts and picking errors are monitored in an ad hoc way
as part of other metrics and only when work flow allows.
• Findings/Accomplishments:
Dashboards developed to allow us to monitor the ongoing
processes to manage organizational changes and ensure
continuance.
• Next Steps:
Continuous improvement and monitoring via Dashboards.
17. D
CONTROL: Using Business Intelligence M
A
• Enhance Process Improvement: I
By allowing us to have a concise ongoing monitoring
framework to constantly evaluate the process and see where
any further improvements may be needed and can be made.
• Enhance Leadership Decision Making:
Dashboard monitoring allows process owners to make quick
decisions based on complete information on planning staffing
levels and disciplinary needs for error rates.
18. D
CONTROL: LSS Tools M
A
• Monitoring: The key metrics are monitored via I
visual controls and charting, while implementing
periodic reviews and audits.
• Control Plan: The material handler process is well
documented and simplified as much as possible
through Standard Work.
19. Lean Six Sigma
Dashboards
Total Lines by Month & Year
2007 2008 2009 2010 2011 UCL LCL
30,000
28,000
26,000
24,000
22,000
Lines
20,000
18,000
16,000
14,000
12,000
10,000
Jan Feb Mar Apr May Jun Jul Aug Sep Oct Nov Dec