[su_spoiler title=”Free Tools” icon=”arrow-circle-1″]
The tools provided are intended to assist you with your Continuous Improvement efforts. ProgressivEdge, Inc. shall not be liable for your download and application of these tools.
Strategy and Planning
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/Strategy_and_Planning_Tools.ppt” “style=”flat” background=”#50BC0E” size=”5″ center=”no” radius=”0″ icon=”icon: download”]Strategy and Planning Tools[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/RASIC_Table_-_Blank.xls” “style=”flat” background=”#50BC0E” size=”5″ center=”no” radius=”0″ icon=”icon: download”]Rasic Table[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/Project_Selection_Worksheet.xls” “style=”flat” background=”#50BC0E” size=”5″ center=”no” radius=”0″ icon=”icon: download”]Project Selection Worksheet[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/Policy_Deployment_X_matrix2.xls” “style=”flat” background=”#50BC0E” size=”5″ center=”no” radius=”0″ icon=”icon: download”]Policy Deployment – X Matrix & Action Plan[/su_button]
Lean
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/Waste-Walk-ProgressivEdge.ppt” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]Waste Walk[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/5S_Audit.xls” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]5S Audit[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/5S_Radar_chart_-_monthly.ppt” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]5S Radar Chart[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/5S_Cleaning_Checklist.ppt” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]5S Cleaning Checklist[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/Set_up_reduction_forms_-_ProgressivEdge.xls” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]Set-up Reduction Analysis[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/Total_Productive_Maintenance_worksheet.xls” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]Total Productive Maintenance Worksheet [/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/Action_Plan-Value_Stream_Mapping.ppt” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]Action Plan – Value Stream Mapping[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/ARS-Action_and_Results_Summary-blank.ppt” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]Action and Results Summary[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/Standard_Work_-_ProgressivEdge.xls” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]Standard Work[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/Project_Event_Charter.xls” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]Project Charter[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/Project_Summary_Form.xls” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]Project Summary[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/VSM_data_sheets_ProgressivEdge.pdf” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]VSM Data Sheets[/su_button]
Six Sigma
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/DMAIC_basic.ppt” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]DMAIC Basics[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/Root_Cause_Analysis_Worksheet.xls” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]Root Cause – 5 Why’s[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/FMEA_blank_form2.xls” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]FMEA blank form[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/Project_Event_Charter1.xls” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]Project Charter[/su_button]
[su_button url=”https://https://progressivedge.com/wp-content/uploads/ProgressivEdge-BB-Workbook-scaled-1.jpg.com/wp-content/uploads/2014/11/Project_Summary_Form1.xls” “style=”flat” background=”#50BC0E” size=”5″ radius=”0″ icon=”icon: download” text_shadow=”0px 0px 0px #000000″]Project Summary[/su_button]
[/su_spoiler]
[su_spoiler title=”ETP Funding” icon=”arrow-circle-1″]
If you are based in California you may be eligible to get reimbursed for the majority of training costs.
The Employment Training Panel (ETP) is a business and labor supported state agency that assists employers in strengthening their competitive edge by providing funds to off-set the costs of job skills training necessary to maintain high-performance workplaces. ETP is governed by a 7 member panel appointed by the Governor and the Assembly and Senate leadership.
The ETP program is performance-based, providing funds for trainees who successfully complete training and are retained in well-paying jobs for a specific period of time.
The program is funded by the Employment Training Tax paid by California employers, and targets firms threatened by out-of-state and international competition.
Since its inception in 1982, the ETP program has provided hundreds of thousands of workers and 80,000 California companies (2012 numbers)
Employers match training funds awarded by ETP for training existing workers, making these projects true public-private partnerships.
ETP also funds training for unemployed workers.
ETP prioritizes small businesses and employers in high unemployment areas of the State.
The program serves as the State’s premier economic development tool, encouraging many companies to locate or expand in California with the assistance of ETP’s job training funds.
Independent research has documented a return on investment of over $5 for every $1 in ETP funds spent on training.
[/su_spoiler]
[su_spoiler title=”Lean Six Sigma” icon=”arrow-circle-1″]
Lean Six Sigma History
The terms Lean and Six Sigma started nearly two and a half decades ago in the mid 1980’s. They originated in different industries to serve different purposes. Lean is generally focused on removal of waste and is done at the “grass roots” level by those closest to the work and with the guidance of Lean Experts. Lean creates a culture of good change (Kaizen). Six Sigma generally focuses on the reduction of variation. Six Sigma tends to be more project based and data driven. Both improve business performance.
Roughly ten years ago, we began to merge the two separate approaches into one powerful combination. Lean Six Sigma has become the way to achieve sustaining process improvement. Lean and Six Sigma are both considered “enablers”. They are proven approaches to process improvement that enable any business in any industry to obtain better results.
Lean
Lean utilizes the PDCA (plan-do-check-act from Edward Deming in 1950 as he translated from Shewart’s 1939 continuous improvement cycle) or PDSA (plan-do-study-adjust from Deming in 1986) model for improvement. The PDSA is a constant reminder that we are never done. We should always be cycling back to re-study and re-adjust for continued improvement. These are the 5 principles of Lean from James Womack in the late 1980’s.
- Value– what customers are willing to pay for
- Value Stream – the steps that deliver value
- Flow – organizing the Value Stream to be continuous
- Pull – responding to downstream customer demand
- Perfection – relentless continuous improvement
Six Sigma
Six Sigma’s strong focus on variation reduction results in stable processes that deliver higher quality. 6 Sigma is a measure of quality that equates to 3.4 defects per million. If your business delivers 6 Sigma quality, you would only make 3 defects in 1,000,000 products produced. Those formally trained and certified in Six Sigma earn titles of Green Belt, Black Belt and Master Black Belt. Six Sigma is project and data driven and uses the DMAIC model for on-going improvement.
Lean Six Sigma
Lean Six Sigma is a combination of both proven approaches. It uses the DMAIC model for projects and Kaizen Events. Culture is created as those closest to the value are engaged with process improvement. Long-term results are achieved as performance measurement systems are set in place to monitor and control. Leadership is engaged strategically to assure that the projects and events are aligned with the overall business objectives.
The following model shows that though Lean and Six Sigma may have started in different industries with different approaches, they complement each other well to deliver quantifiable and sustaining performance improvement.
[/su_spoiler]
[su_spoiler title=”Glossary” icon=”arrow-circle-1″]
You have discovered one of the most comprehensive Lean Six Sigma glossaries available. Here you will find Lean, Six Sigma and other Continuous Improvement terms and definitions. Please feel free to refer back to this glossary as you move forward with your Continuous Improvement efforts. Also, please feel free to contact us if you have questions or would like to see other words added to the glossary.
A
Abnormality Management |
Being able to see and quickly take action to correct abnormalities (any straying from Standard Work). This is the goal of standardization and visual management. Continuous waste elimination and problem solving through kaizen are only possible when the abnormalities are visible. |
Accuracy |
Instrument accuracy is the difference between the observed average value of measurement on a test piece or process, and the master value for the same test piece or process |
Activity Based Management – ABM |
Activities managed based on ABC costing. |
Activity Based Costing – ABC |
A management accounting system that assigns cost to products based on the resources used to perform a process (design, order entry, production, etc). These resources include floor space, raw materials, energy, machine time, labor, etc. |
Affinity Diagram |
A process to organize information by placing it on cards and grouping the cards that go together in a creative way. Header cards are then used to summarize each group of cards. |
A hypothesis which one is trying to prove. Contrast to Null Hypothesis |
|
Andon | A system of flashing lights used to indicate production status in one or more work centers; the number of lights and their possible colors can vary, even by work center within a plant; however, the traditional colors and their meanings are:
green – no problems yellow – situation requires attention red – production stopped; attention urgently needed |
Andon Board |
A visual control device in a production area, typically a lighted overhead display or board. Andons are used to give the current status of the production system and alert team members to emerging problems or abnormal situations. |
ANOG |
Analysis of Good – Analysis technique to sort data from best to worst to identify visual trends in the test matrix. |
ANOM |
Analysis of Means – Analogous to ANOVA only looking at the difference of Means, usually in a graphical format. |
ANOVA |
Analysis of Variance – a basic statistical technique for analyzing experimental data. It subdivides the total variation of a data set into meaningful component parts associated with specific sources of variation in order to test a hypothesis on the parameters of the model or to estimate variance components. There are three models; fixed, random and mixed. |
AOP |
Annual Operating Plan – Basically plan that a site/SBU/SBE is measured to. |
AQL |
Acceptance Quality Level – when a continuing series of lots is considered, a quality level that, for the purposes of sampling inspection, is the limit of a satisfactory process average. |
Attribute Data |
Typically go / no-go information (yes/no, good/bad…). The control charts based on attribute data include percent chart, number of affected units chart, count chart, count per unit chart. |
“Automation with a human touch”. A system in which machinery automatically inspects each item after processing it and ceases production if a defect is detected.
(English translation of Jidohka) – a form of automation in which machinery automatically inspects each item after producing it, ceasing production and notifying humans if a defect is detected; Toyota expands the meaning of jidohka to include the responsibility of all workers to function similarly, i.e. to check every item produced and to make no more if a defect is detected, until the cause of the defect has been identified and corrected. |
|
Average Chart |
A control chart in which the subgroup average, X-bar, is used to evaluate the stability of the process level. |
B
Backflush |
The process of automatically decrementing perpetual inventory records, based on the bill of materials of a given product. Normally triggered by shipment and invoicing to a customer, back flushing is used to eliminate wasteful inventory transactions. |
Balanced Plant |
A plant where capacities of all resources are balanced exactly with market demand |
Balanced production |
All operations or cells produce at the same cycle time. In a balanced system, the cell cycle time is less than takt time. |
Barriers to Flow |
Flow is a primary objective of Lean. Barriers to flow can be seen as process steps or any of the 6M’s that are restricting flow. Examples include: inventory, approvals, inspections, batching, long set-up times… |
A “Push” system of production where resources are provided to the consumer based on forecasts or schedules. This is not Lean. |
|
Batch-and-Queue |
Producing more than one piece of an item and then moving those items forward to the next operation before that are all actually needed there. Thus, items need to wait in a queue. This is not Lean. |
BB or BBC |
Black Belt or Black Belt Candidate |
The process of measuring products, services, and practices against those of leading companies. Then learning and applying their best practices to see similar improvements. |
|
Best-in-Class |
A best-known example of performance in a particular operation. One needs to define both the class and the operation to avoid using the term loosely |
Bias |
The difference between the observed mean reading and reference value. |
Blitz |
A blitz is a fast and focused process for improving some component of business a product line, a machine, or a process. It utilizes a cross-functional team of employees for a quick problem-solving exercise, where they focus on designing solutions to meet some well-defined goals. |
BMS |
Between Mean Square – used in the Interclass Correlation Coefficient |
Any process step that limits throughput of the entire process. See Constraint |
|
In Policy Deployment, those objectives characterized by multi-functional teamwork, significant change in the organization, significant competitive advantage and major stretch for the organization. |
C
C |
Constant |
C/O |
Change Over time. See Setup Time |
C/T |
See Cycle Time |
Capacity Constraint Resources |
Where a series of non-bottlenecks, based on the sequence in which they perform their jobs can act as a constraint. |
Cause and effect Diagram |
A problem-solving tool used to establish relationships between effects and multiple causes. The effect is identified with branches (fish bones) showing many causes for the effect. |
Cause and Effect Matrix |
A tool for analyzing a process whereby the cause and effect are ranked by severity to the customer, as well as the possible occurrence of the cause in the process. This is then multiplied and added by process step and ranked to help focus efforts to process improvements. This is a precursor to the FMEA in some cases. |
Cellular layout |
The layout of machines of different types, performing different operations in the sequence of processing to permit single-piece flow and flexible deployment of human effort to operate multiple machines. Contrast to functional layout. |
Central Limit Theorem |
Any given distribution (even non-normal data) approaches a normal distribution as the sample size increases. The central limit theorem explains why many distributions tend to be close to the normal distribution. |
Champion |
Helps the organization apply concepts and overcome barriers. |
Changeover Time |
See Setup Time |
Common Cause Variation |
Causes of variation that are inherent in a process over time. Common cause variation is fluctuation caused by unknown factors (see 6M’s) resulting in a steady but random distribution of output around the average of the data. It is a measure of the process potential, or how well the process can perform when Special Cause Variation is removed. Also known as “Random Variation”. |
Confounded |
Two or more effects that cannot be separated. Usually a result of running less than a full factorial designed experiment. |
Constraint |
Anything that limits a system from achieving higher performance or throughput also known as a bottleneck. |
Continuous Flow Production |
Each process makes only the one piece that the next process needs. Requires effective Setup Time Reduction. Also called single piece flow, one piece flow and make one pass one. |
Continuous Improvement (CI) |
The never-ending process of eliminating waste and reducing variation. |
Control Chart |
A chart with upper and lower control limits on which values of some statistical measure for a time series of samples or subgroups is plotted. The chart frequently shows a central line to help detect a trend of the plotted values toward either control limit. Could be I-mR or Xbar-mR |
Control Element |
A specific process variable, which must be controlled. Measurements of a control element indicate whether or not a stable condition has been achieved |
COPQ |
Cost of Poor Quality; the cost of failing to produce & deliver 100{fab92574815c88aa96eec787c9edf8903479dd809619183f578e07fc4cc1a4a3} quality to our customers. Includes internal, external, inspection, prevention and missed opportunity. |
Counter measures |
Immediate actions taken to bring performance that is tracking below expectations back into the proper trend. Requires Root Cause Analysis |
Counterclockwise flow |
A basic principle of Lean manufacturing cell layout is that the flow of material and the motion of people should be from right to left, or counterclockwise. The origin of this idea came from the design of lathes and machine tools with the chucks on the left side, making it easier for right-handed people to load from right to left. |
COV |
Components Of Variation – an analysis of nested factors using a control chart methodology to determine the greatest source of variation. |
Covariance |
The impact of one variable upon others in the same group |
Process Capability target centered in specification range, compares the amount of common cause variation that exists in the process to that allowed by the specification, expressed as: |
|
Process Capability, target not centered on range but on specification target, or one side only expressed as: minimum of |
|
Criteria Selection Matrix |
A tool utilized to prioritize and select from a large collection of possible choices. |
Critical Input |
In Process Mapping – Input variables that have been statistically shown to have a major impact on the variability of the process output variable(s). |
Crossed Factors |
These are factors that are independent from each other, that is they may be adjusted and run in an experiment in any order necessary. |
CRR |
Completely randomized replicate – A replicate that has all runs randomized across the experiment in a DOE |
CSI |
Customer Satisfaction Index – A measure of customer’s delight with your product or service. |
Current State Map |
Current state value stream maps show “as is” flow of information and flow of product/service. It identifies opportunities for improvement. |
Cycle Time |
The time it takes to do one repetition of any particular task at an individual process step. Cycle time can be categorized into 1) manual cycle time, 2) machine cycle time, and 3) auto cycle time. Also referred to as touch time or process time. |
D
Daily Management |
Attention each day to those issues concerned with the normal operation of a business. |
Days supply of inventory (DSI) |
Total number of days (if the production level equals zero) that it would takes to deplete finished goods inventory for the specified product line based on customer demand. |
Defect |
One of the 8 wastes. Any activity, service or product that is not done right the first time. |
Deming Cycle |
The concept of continuously rotating wheel used by W. E. Deming to emphasize the necessity of constant interaction among research, design, production, and sales so as to arrive at an improved quality that satisfies customers (see PDCA Cycle) |
Dependent Events |
Events that occur only after a previous event. |
DET |
See Detectability |
Detectability |
Used in the FMEA to rate the ability to detect the cause of a failure mode. Also known as Detection. |
DF |
Degrees of Freedom – The number of independent pieces of information that can be used to estimate a statistic. We earn one df for every data point we take and we use one up for every statistical parameter we estimate. The more df’s we have in a sample the closer we come to a normal distribution |
DFM |
Design for Manufacturability – Involves a team effort of product design, production knowledge, Engineering…to develop product which can be produced in the most efficient way. |
Discrimination |
Technological ability of the measurement system to adequately differentiate between values of a measurement parameter. |
DMAIC |
The basic model for Six Sigma. Involves: Define, Measure, Analyze, Improve & Control |
DOE |
Design Of Experiment – Statistically planned experimental exploration and/or confirmation of critical inputs from the FMEA, multi-vari study or process map. |
DPMO |
Defects per Million Opportunities – a measure of the potential for a defect, also used to convert into a Sigma for the process, a measure of quality of the process. |
DPU |
Defects per Unit – Any time a customer requirement is not met, sometimes known as escapes. |
Drift |
The inherent shift of a process, measurement, or statistic over a period of time. |
DSO |
Days Sales Outstanding – a measure of lack of cash flow. |
E
Error Proofing |
See Mistake Proofing |
Every part every (EPE) |
Measured in terms of time (hours, days, weeks, months, etc.) “Every Product Every X” indicates the level of flexibility to produce whatever the customer needs. For instance, Every Product Every day would indicate that changeovers for all products required can be performed each day and the products can be supplied to the customer |
F
Factors |
Independent and controllable variables which can change the output of a process utilized in DOE. |
Failure Effect |
From an FMEA – What the effect will be to other functions, systems, customers etc. |
Failure Mode |
From an FMEA – Ways in which the process is expected to fail to perform. |
FIFO Lane |
A lane where material is fed in and pulled out as a “first-in first-out”. A maximum quantity predetermined and designed to allow only the maximum into the lane. |
Fishbone Diagram | |
Fixed Effects Model |
A situation where a model is generated from the or for fixed factor levels. |
Fixed Factors |
The levels of the factors used in an experiment were the specific levels are of interest. |
Flexible Manufacturing System (FMS) | An integrated manufacturing capability to produce small numbers of a great variety of items at low unit cost. An FMS is also characterized by low changeover time and rapid response time.
|
Flow |
A main objective of the lean production effort, and one of the important concepts that passed directly from Henry Ford to Toyota. Ford recognized that, ideally, production should flow continuously all the way from raw material to the customer and envisioned realizing that ideal through a production system that acted as one long conveyor. Also see Barriers to Flow |
Flow Chart |
A problem solving tool that illustrates a process. It can show the “as is” process or “should be” process for comparison and should make waste evident |
FMEA |
Failure Modes and Effects Analysis – Systematic method for documenting potential failure modes, determining effects, identifying causes of failures, developing plan, team concurrence, and take action. |
FPY |
First Pass Yield – the percentage of parts that went through a process step without a defect. |
Fractional Factorial |
A DOE where all factors are varied, but not all combinations of the factors are run over the experiment. |
f-test | A test to statistically prove there has been a significant shift in the standard deviation from data set to another.During process improvement, this test can demonstrate that you have reduced variation from an old process to the new process. |
Full Factorial |
A DOE where all factors are varied and all combinations of the factors are run over the experiment. |
Functional Layout |
The practice of grouping machines or activities by type of operation performed. This is generally not considered Lean. |
Future State Map |
Future state value stream maps show “to be” flow of information and flow of product or service. It includes a redesign of the Current State Map integrating Lean concepts to achieve a desired performance. |
G
Gage R&R |
Gage Repeatability & Reproducibility – A method for evaluating the variation in the measurement process. Allows for comparison, graphically and analytically, of process to measurement and specification to measurement variation. |
GB or GBC |
Green Belt or Green Belt Candidate |
Gembutsu |
Japanese for ‘actual thing’ or ‘actual product’. The tools, materials, machines, parts, and fixtures that are the focus of kaizen activity. |
Genjitsu |
Japanese for ‘the facts’ or ‘the reality’. The actual facts or the reality of what is happening on the shop floor and in the business. |
H
Ha |
|
Averaging both the volume and the production sequence of different model types on a mixed-model production line to achieve smooth flow of product or service.
May be found as a schedule board, heijunk box, heijunka wheel, kanban links… In a larger sense, it includes all of the activities around smoothing and sequencing demand. |
|
A chart that displays data in distribution, generally in graph format. It may be used to reveal the variation that any process contains. |
|
See Null Hypothesis |
|
Also known as Management by Policy or Strategy Deployment. A means by which goals are established and measures are created to ensure progress toward those goals. It keeps activities at all levels of the company aligned with its overarching strategic plans. |
I
ICC |
Interclass Correlation Coefficient – a reliability index that allows you to see how well defined a subjective measurement system is when a ranked scaling is being used. |
I-mR |
Individual X Moving Range Chart. Looks at one piece samples on a Control Chart |
Inference Space |
Area within which you draw conclusions (e.g., based on the results of a DOE) |
Interclass Correlation Coefficient | A reliability coefficient that is used to judge the reproducibility of a subjective measurement system for attribute data that is ranked. One type of MSA |
Inventory |
One of the 8 Wastes. All raw materials, purchased parts, work-in-process components, and finished goods that are not yet sold to a customer. |
Ishikawa Diagram |
J
Jidohka |
see Autonomation |
Just-In-Time (JIT) |
A concept of having just the right amount of inventory needed exactly when it is needed to reduce costs associated with holding inventory. JIT is a system for producing and delivering the right items at the right time, in the right amounts. |
K
k |
Factor – when used in the formula 2Rk-p for defining a fractional factorial. |
Kaikaku |
A rapid and radical change process, sometimes used as a precursor to kaizen activities. Small incremental improvements |
Kaizen |
The philosophy of continuous improvement. |
Kaizen Blitz |
See Kaizen Event |
Kaizen Event | A structures and focused, short duration problem solving activity used to improve processes throughout the organization. Generally ranges from 1 day to 5 days. |
Kanban |
A signal to the supplying process that the input has been consumed and is ready for replenishment. |
Kappa |
A reliability coefficient that is used to judge the reproducibility of a subjective measurement system for attribute data that is non-ranked (ie good/bad, pass/fail…). This is one type of MSA. |
KPI |
Key Process Indicator (index) |
KPIV |
Key Process Input Variable |
KPOV |
Key Process Output Variable |
L
LCL |
Lower control limit of a Control Chart calculated based on the average range (within subgroup) and the grand mean (between subgroup) of the data. |
Lead-Time | The total time a customer must wait to receive a product after placing an order. |
Lean |
Removal of non-value added activities (8 Wastes) resulting in improved delivery of product or service at the most efficient return on investment. |
Line Balancing |
Balancing of Cycle Times at each operation to be less than or equal to Takt Time. |
Linearity |
A measure of deviation from a linear relationship between two variables, or the issue of Linearity, where a measurement system has changing variation across its usable range of measure. |
LSL |
Lower limit of the engineering specification – independent of the control limit of a process. |
M
Maintenance | Activities that are directed to maintaining current technological, managerial, and operating standards. |
Make One Pass One |
|
MBB or MBBC |
Master Black Belt or Master Black Belt Candidate |
Measure to provide indication of the central tendency of a data set. Sum of all data points divided by the number in sample taken. |
|
Measurement Error |
Variation in measurements that can be attributed to variation in the item being measured or in the measurement system itself |
Median |
Value falling in the middle of a data set when data are sorted in an order, ascending or descending |
Metrics | Means of showing business process performance. Can measure inputs (indicators) or outputs. Should include goals and metric ownership. |
Mission Statement | Describes a company’s product, market, and technological areas in a way that reflects the values and priorities of the business leaders. It is “what they do”. |
Mistake Proofing | Process, equipment, tools… designed not to allow mistakes to occur |
Mixed Model Production | Capability to produce a variety of models, that differ in labor and material content, on the same production line. Allows for efficient utilization of resources while providing rapid response to marketplace demands. |
Motion (excessive) |
One of the 8 Wastes. Any motion not needed to add value to product or service. |
mR |
Moving Range |
MSA |
Measurement System Analysis – Identification and quantification of the different sources of variation that are caused by and affecting the measurement system. |
MTBF |
Mean Time Between Failure – Common equipment reliability measure looking at the average time between failures. |
MTTR |
Mean Time to Repair – Looks at the average time to perform equipment repairs. |
Muda |
Japanese for waste. Any activity that adds to cost without adding to value of the product. The seven original wastes. See the first seven of the 8 Wastes. |
Multi-Skilled Worker | People at any level of the organization that are diverse in skills and training. They provide the organization with flexibility and grow in value over time. Essential for achieving maximum efficiencies of Lean. |
Multi-Variable Chart |
A multi-vari chart is a tool that graphically displays patterns of variation. It is used to identify possible inputs or families of variation, such as variation within a subgroup, between subgroups, or over time. |
Mura |
Japanese for inconsistency or unevennes. Variations in process quality, cost and delivery |
Muri | Japanese for unreasonableness. Demand exceeds capacity. |
N
n |
Sample Size |
NEM |
Numerical Evaluation of Metrics – another name for control charting focusing on the idea rational subgrouping, that is using changing subgroups to evaluate a process. |
Nested |
In a multi-factor experiment the levels of one factor (factor B) are similar but not identical for different levels of another factor (factor A). This hierarchical design is said to have factor B nested under the levels of factor A. |
NIST |
National Institute of Standards |
Noise |
Variables, or factors which are difficult, or not feasible to control, but can be monitored or measured. |
Normal Distribution |
A bell shaped curve with a single peak, symmetrical about the center (mean), defined by a data set or a population |
Null Hypothesis |
A statement of no difference between before and after states. Contrast to Alternate Hypothesis |
NVA |
Non-Value Added – Activities or actions taken that add no real value to the product or service. See 8 Wastes. |
O
OCC |
Occurrence – as defined in the FMEA |
OEE |
Overall Equipment Effectiveness – OEE = ({fab92574815c88aa96eec787c9edf8903479dd809619183f578e07fc4cc1a4a3} Available) x ({fab92574815c88aa96eec787c9edf8903479dd809619183f578e07fc4cc1a4a3} of designed output rate) x ({fab92574815c88aa96eec787c9edf8903479dd809619183f578e07fc4cc1a4a3} First Pass Yield) |
OFAT |
One Factor at A Time – holding all factors constant while one factor is changed to see its effect on the output. This is the lowest level (less efficient) means of DOE. |
One-piece flow | |
Operating Expenses | The money required the system to convert inventory into throughput |
Operational Planning |
Tactical details for short-term tied into Strategic Plans |
Overproduction |
One of the 8 wastes. Producing more, sooner or faster than is required by the next process. |
P
P/T |
Product Tolerance from the Gage R&R output – This column shows the percentage of the process tolerance taken up by each variance component. |
PACE chart |
Tool utilizing quadrants to categorize based on ease of implementation and anticipated benefits. PACE – Possible, Action, Challenge, Eliminate. Setting the PACE to great improvements. |
Pareto Chart |
A vertical bar graph showing the bars in descending order of significance, ordered from left to right. Helps to focus on the vital few problems rather than the trivial many. A majority of the items will be relatively minor in significance, (i.e. the 80/20 rule) |
PDCA Cycle |
An adaptation of the Deming wheel. While the Deming wheel stresses the need for constant interaction among research, design, production, and sales, the PDCA Cycle asserts that every managerial action can be improved by careful application of the sequence: Plan, Do, Check, Act then recycle back to Plan. |
PGA |
Practical Graphical Analytical – Methodology of analyzing results from a DOE. |
Point of Use Storage |
Also known as POU. This concept puts all required material to perform a task with reach of the worker. A Water Spider replenishes as needed. |
Poka-Yoke |
See Mistake Proofing |
Policy Deployment |
See Hoshin Planning |
PPM |
Parts per Million – a measure of defects in a process |
Precision |
See Repeatability |
Probability Distribution |
Diagram of relative frequency of occurrence for the whole population |
Process |
The flow of material in time and space. The accumulation of sub-processes or operations that transform material from raw material to finished product |
Process Capability |
Performance of the process when it is operating in control |
Process Capability Index | |
Process Centering |
A method to ensure that the peak of the process output distribution (assuming normality) is at the center of the specification limits. |
Process Kaizen |
Improvements made at an individual process or in a specific area. Sometimes called “point kaizen” |
Process Mapping |
Graphical method to describe activities/tasks, sub processes, process boundaries, process flow, and process inputs (x’s & X’s), classification of process inputs (noise, sop, controllable…) and process outputs (y’s & Y’s) A visual representation of the sequential flow of a process. Used as a tool in problem solving, this technique makes opportunities for improvement apparent. |
Process Time |
See Cycle Time |
Processing (excessive) |
One of the 8 Wastes. Processes that may not be necessary… not adding value. |
Production Smoothing |
The creation of a level schedule by sequencing orders in a repetitive pattern and smoothing the day-to-day orders to correspond to longer-term demand. Without level consumption patterns over a defined horizon, kanban pull systems will not work well. Also known as Heijunka. |
Project Charter |
A tool utilized at the beginning and through out any project or event to keep teams focused and delivering results. |
Pull System |
A system of cascading production and delivery instructions from downstream to upstream activities in which the upstream supplier waits until the downstream customer signals a need. A pull system means producing only what has been consumed by downstream activities or customers. This system minimizes waiting, overproduction and inventory. |
Push System |
In contrast to the pull system, product is pushed into a process, regardless of whether it is needed. The pushed product goes into inventory, and lacking a pull signal from the customer indicating that it has been bought, more of the same product could be overproduced and put in inventory. This is not considered Lean. |
Q
QFD |
Quality Function Deployment – a method of evaluating a process and its impact on the customer’s expectation. A visual decision-making procedure for multi-skilled project teams that develops a common understanding of the voice of the customer and a consensus on the final engineering specifications of the product that has the commitment of the entire team. QFD integrates the perspectives of team members from different disciplines, ensures that their efforts are focused on resolving key trade-offs in a consistent manner against measurable performance targets for the product, and deploys these decisions through successive levels of detail. |
Quality Management |
The systems, organizations, and tools which make it possible to plan, manufacture, and deliver a quality product or service. This does not imply inspection or even traditional quality control. Rather, it builds quality into the entire process of bringing goods and services to the customer. |
Queue Time |
The time a product spends in a line awaiting the next design, order processing, or fabrication step |
Quick Changeover |
R
R |
Range – with regards to subgroups in control charting |
R Chart |
Range chart – showing the ranges of the subgroups the R Bar and the UCLR |
Random Effects Model |
A situation where we want to extend the conclusions of a statistical test beyond the levels of the factors used in the test, the factors therefore must be random factor levels from a larger population of potential levels. |
Random Factors |
In some experimental situations the factor levels are chosen at random from a larger set of potential factor levels. The intent being to draw conclusions of the larger population of levels of the factor not just those used. |
Random Variation | |
Range |
Difference between the largest data value and the smallest data value, in a subgroup or data set. |
RASIC or RASI |
A method to evaluate business processes compared to individuals (or functions) with regards to who is; responsible, accountable, supportive, informed and consulted. |
RCBD |
Randomized Complete Block Design – Running a DOE with two blocks randomizing within the block. |
RCCA |
Root Cause and Corrective Action |
Repeatability |
Variation between successive measurements of the same part, same characteristic, by the same person using the same instrument (short term variation) |
Repeats |
With one set up in a DOE and running multiple parts per treatment to quantify the impact of factors on short term variation, does not add df to the analysis. |
Replicate |
Within a DOE the additional run of all treatments to understand the short term to medium term variation usually including multiple set ups. Adds df to the analysis. |
Reproducibility |
The difference in the average of the measurements made by different persons using the same instrument, but different set-ups, when measuring the identical characteristic |
RICBD |
Randomized Incomplete Block Design – Running a DOE with a block within one factors levels sets. |
ROI |
Return on Investment – a financial term to define the value of the decision or project. |
Root Cause Analysis |
Identifying the “true” reason for a known issue. 5 Why’s, Cause and Effect Diagram and Cause and Effect Matrix are some tools for getting to the root cause. |
ROT |
Rule of Thumb |
RPN |
Risk Priority Number – The product of Severity, Occurrence, Detectability on an FMEA |
RTY |
Rolled Throughput Yield – A measure of a process that looks at the probability of a product going through a process without a defect. This can be calculated by multiplying the FPY of each process step together. |
S
S Chart |
Sample Standard Deviation Chart – used when the subgroups are of unequal sizes in replacement of the R Chart. |
Scorecard |
Collection of Metrics on one sheet. Red, yellow and green indicators are utilized for quick and standardize reference. |
SDM |
Statistical Design Methodology – where a tolerance is based on probabilities and definitions of risk rather than worst case scenarios. |
Sensei |
One who provides information; a teacher, instructor, or rabbi. An outside master or teacher that assists in implementing Lean practices |
Setup Time |
The time required to change a process over from one product or service type to the next good product or service type. |
Setup Time Reduction | A process of reducing setup time by identifying and reducing two types of time:
1. Internal Time: Activity that can be done only when the machine or process is not actively engaged in production. Move as much setup time from internal to external. 2. External Time: Activity that can be performed concurrently with the machine or process performing production duties. |
SEV |
Severity – with regards to the failure effect of an FMEA |
Shift |
A change in of an otherwise stable or steady statistic |
Sigma |
Greek letter that represents Standard Deviation. Also a way of managing a business to collect and use data to “act on fact” in management decisions. |
Single Minute Exchange of Dies (SMED) |
Changing a die or conducting a model changeover in a less than 10 minutes. Accomplished through separation of internal and external elements as well as standardizing and practicing the changeover process. Ultimate goal of changeover times less than or equal to takt time. Also see Setup Time Reduction |
Single Piece Flow | |
SMART |
Specific, Measurable, Achievable, Relevant, Time Bound – used to define a process improvement projects. |
SOP |
Standard Operating Procedure – See Standard Work. |
SPACER |
Safety, Purpose, Agenda, Code of conduct, Expectations, Roles – used to set up the tone of a meeting. |
Spaghetti Diagram |
Map showing movement of people, product or materials and can show total distance traveled. Can show multiple people. |
SPC – Statistical Process Control |
Statistical charts based on numerical (variable) measurements that become a picture of the process over time. |
Special Cause Variation |
Variation caused by known factors that result in a non-random distribution of output. Special cause variation is a shift in output caused by a specific factor (see 6M’s) such as environmental conditions or process input parameters. It can be accounted for directly and potentially removed. Also known as “Assignable Variation”. |
Stability |
Stability represents variation due to elapsed time. It is the difference between an individual’s measurements taken of the same parts after an extended period of time using the same techniques. |
Standard |
A prescribed documented method or process that is sustainable, repeatable and predictable. Similar to a rule or law. These involve comparison with accepted norms, such as are set by regulatory bodies. |
Standard Deviation |
Positive square root of the variance – a measure of the dispersion about the mean of a data set. Defined by for a sample. |
Standard Work |
An optimum combination of people, machines (mechanical resources) and material for each task or activity of a process. See standardization. A precise description of each work activity specifying cycle time, takt time, the work sequence of specific tasks, and the minimum inventory of parts on hand needed to conduct the activity |
Standard Work in Process |
The minimum amount of material or a given product, which must be in process at any, time to insure proper flow of the operation |
Standardization |
Documenting and using the best known method of completing a task or activity. Standardization leads to reduced variation leading to more consistent performance in respect to quality, cost and delivery. The system of documenting and updating procedures to make sure everyone knows clearly and simply what is expected of them. |
STRAP |
Strategic planning usually 3 to 5 year forward looking. |
Strategic Planning |
Sets the direction for long-term business survival. See Hoshin Planning |
Stratification |
Unnaturally small fluctuations on a control chart with an absence of points near the control limits (sometimes termed white space due to lack of points) |
Sub-Optimization |
A condition where gains made in one activity are offset by losses in another activity or activities, created by the same actions crating gains in the first activity. |
Supplier Partnership |
An approach to business that involves close cooperation between the supplier and the customer. It provides benefits and responsibilities that each party must recognize and work together to realize |
SWOT Analysis | An analysis looking at a businesses strengths, weaknesses, opportunities and threats. |
System Kaizen | Improvement aimed at an entire value stream |
T
Takt Time |
Takt Time a measure of how efficient a process is defined as the: Time Available / Customer Demand. Takt, is a German term for rhythm. This is NOT the same as Cycle Time. |
TEEP |
Total Effective Equipment Productivity – A formula looking at equipment utilization compared to a theoretical capacity. |
Theory of Constraints |
A lean management philosophy that stresses removal of constraints to increase throughput while decreasing inventory and operating expenses |
Throughput time |
The amount of time it takes for a product to go through the system, from the first operation to the final operation, including processing, delays, movement, queues, etc. May be the same as lead-time. The time required for a product to proceed from concept to launch, order to delivery, or raw materials into the hands of the customer. This includes both processing and queue time. |
TLA |
Three Letter Acronym |
Total Defects per Unit (TDU) |
Total number of defects in one unit of a product (whether they have been reworked or not during the process). |
Total Productive Maintenance |
A series of actions designed to insure that every machine or piece of equipment in a production process is always able to perform its required task(s) without interrupting continuous flow of the production process. TPM attempts to maximize equipment effectiveness (and availability) throughout the entire life of the equipment. |
Touch Time |
See Cycle Time |
Toyota Production System |
Manufacturing philosophy that shortens the time between customer order and shipment by eliminating waste |
TPM | |
TPR |
Total Production Ratio – Similar to OEE, but not split into three areas of opportunity. |
Transportation |
One of the 8 Wastes. Any transportation of parts, documents and materials from one place to another for any reason. |
t-test | A test to statistically prove there has been a significant shift in the mean from data set to another.During process improvement, this test can demonstrate that you have shifted the mean from an old process to the new process. |
U
UCL |
Upper Control Limit – of a Control Chart calculated based on the average range (within subgroup) and the grand mean (between subgroup) of the data. |
Uncoded Matrix |
The matrix of factors with their values in actual units (recommendation is to analyze DOE’s with coded factor levels, e.g. –1 & +1) |
Underutilization of People |
One of the 8 Wastes. This waste can be seen in two ways: 1) not optimizing peoples time, 2) not utilizing people’s talent, education, skill, experience… |
Uptime |
Amount of time a machine can work defined as Total Available time – planned machine down time. |
USL |
Upper limit of the engineering specification – independent of the control limit of a process. |
V
W
Waiting |
One of the 8 Wastes. Waiting for work, information, approvals, parts, materials, tools, equipment… |
Waste |
Also known as Muda) See 8 Wastes. Anything that uses resources, but does not add real value to the product or service. |
Water Spider | A person responsible for replenishing materials located at workstations. This allows a production worker to stay focused on production reducing barriers to flow. |
WMS |
Within Sample Mean Square – used in the ICC calculation |
World Class Manufacturing | A philosophy of being the best, the fastest, and the lowest cost producer of a product or service. It implies the constant improvement of products, processes, and services to remain an industry leader and provide the best choice for customers, regardless of where they are in the process. |
X
Y
Z
Z |
Z statistic – transform for normally distributed data. |
Symbols & Numbers
R Bar or average range – with regards to subgroup ranges the average of all ranges in the study. | |
X Bar defined as the average of X’s in a sample, also known as a sample mean | |
X Double Bar defined as the average of the averages. | |
See Sigma | |
Summation – A capitol letter of the Greek symbol sigma. | |
Level | Sigma Level – A measure of the potential defects of a process. Used to measure improvement for a defect perspective. |
2 | See Variance |
3P | Production Preparation Process. Rapidly designing production processes and equipment to ensure capability, built-in quality, productivity, and Takt-Flow-Pull. The Production Preparation Process minimizes resources needed such as capital, tooling, space, inventory, and time. |
5 Principals of Lean |
|
A Root Cause Analysis technique used whenever a problem is encountered to identify the true root cause. The question “why” is asked a sufficient number of times to get to the true root cause. A simple problem solving method of analyzing a problem or issue by asking “Why” five times. The root cause should become evident by continuing to ask why a situation exists |
|
5S |
A system for creating and maintaining an organized work place (sort, store, shine, standardize and sustain). Refers to the five words seiri, seiton, seison, seiketsu, shitsuke. These words are shorthand expressions for principles of maintaining an effective, efficient workplace
|
Man, Machine, Method, Measurement, Material, Mother Nature. Helps us identify inputs to processes. |
|
Data gathering and analysis tools used for kaizen activities originally by QC Circles. They are 1) check sheets, 2) cause and effect diagrams, 3) Pareto diagrams, 4) histograms, 5) graphs, 6) scatter diagrams, and 7) broken line graphs. |
|
Underutilization of People (originally started as 7 wastes. This last one was added over the more recent years) |
[/su_spoiler]
[su_spoiler title=”Books and Articles” icon=”arrow-circle-1″]
Articles
- “Lean in the Oil Fields”, Ric Van Der Linden
- “Walking Through Lean”, Jim Womack
- “Roots of Lean”, Jim Huntzinger
- “Learning to Lead at Toyota”, Steven Spear
- “Staple Yourself to an Order”, Ben Shapiro
- “Taking Back the Weekend”, Wall Street Journal
- “What’s Wrong with Six Sigma”, ASQ
- “After Six Sigma, What’s Next”, ASQ
- “Lean Six Sigma Leads Xerox”, Arthur Fornari
- “A Managers Guide to Implementing Lean”, Manufacturing and Technology News
- “Toyota’s Success Pleases Proponents of Lean”, Del Jones, USA Today
Books
Continuous Improvement Culture and Strategy
- “The Outstanding Organization” by Karen Martin
- “Creating a Culture of Lean”, David Mann
- “Beyond Strategic Vision”, Michael Cowley
- “A Passion for Success”, Kazuo Inamori
- “Making Change Work”, Brien Palmer
- “Six Sigma for Managers”, Greg Brue
Performance Measurements
- “The Basics of Performance Measurements”, Jerry Harbour
- “Keeping Score”, Mark Graham Brown
- “Real Numbers”, Jean Cunningham
- “Practical Lean Accounting”, Brian Maskell
Lean Basics
- “Lean Thinking”, James Womack
- “Lean Transformation”, Bruce Henderson
- “The Lean Enterprise Memory Jogger”, Richard MacInnes
- “Lean Production Simplified”, Pascal Dennis
- “Shopfloor Series” by Productivity Press (one book on each tool)
- “The Toyota Way”, Jeffery Liker
Value Steam Mapping
- “Value Stream Mapping” by Karen Martin and Mike Osterling
- “Learning to See”, Mike Rother and John Shook
- “Seeing the Whole”, Dan Jones and Jim Womack
- “The Complete Lean Enterprise”, Beau Keyte
Kaizen
- “Gemba Kaizen”, Masaaki Imai
- “The Kaizen Blitz”, Anthony Laraia
- “Kaizen for the Shopfloor”, Productivity Press
- “The Kaizen Event Planner”, Karen Martin and Mike Osterling
Lean Six Sigma
- “Lean Six Sigma Pocket Tool Book”, Michael George
- “The Black Belt Memory Jogger”
- “Six Sigma for Small Business”, Greg Brue
- “Six Sigma for Managers”, Greg Brue
Administrative and Service
- “Lean Six Sigma for Service”, Michael George
- “The Lean Office Pocket Guide”
- “Lean Supply Chain Management”, Michael Donovan
- “The Lean Healthcare Pocket Guide”
- “The Complete Lean Enterprise”, Beau Keyte
Resources
[/su_spoiler]
[su_spoiler title=”Useful Links” icon=”arrow-circle-1″] [su_row][su_column size=”1/2″]
American Society for Quality (ASQ)
[/su_column]
[su_column size=”1/2″]
The Association for Operations Management (APICS)
[/su_column][/su_row]
[su_row]
[su_column size=”1/2″]
Association for Manufacturing Excellence (AME)
[/su_column]
[su_column size=”1/2″]
California Council for Excellence – (CCE)
[/su_column]
[/su_row]
[su_row][su_column size=”1/2″]
[/su_column]
[su_column size=”1/2″]
Institute of Industrial Engineers – National (IIE)
[/su_column][/su_row]
[su_row]
[su_column size=”1/2″]
Tech America – San Diego
[/su_column]
[su_column size=”1/2″]
Lean Enterprise Institute (LEI)
[/su_column]
[/su_row]
[su_row]
[su_column size=”1/2″]
Society for Health Systems (SHS)
[/su_column]
[su_column size=”1/2″]
Society for Manufacturing Engineers (SME)
[/su_column]
[/su_row] [/su_spoiler]
[su_spoiler title=”FAQs” icon=”arrow-circle-1″]
[qa] [/su_spoiler]