Friday, November 15, 2013

Henry Ford - Fordism - Product and Productivity Achievements




The Model T was designed to be simple, reliable and easy to build. When it went on sale in the USA, it was sold for only US$825, much lower than the $2000-$3000 level of its counterparts.

1910

The Ford Motor Company opened its 60-acre Highland park plant on January 1 in an effort to meet the unprecedented demand for the Model T. Company policy already dictated that production machinery was to be scrapped as fast as the tool department could develop improved types of specialized machinery that would support higher volumes of production. Henry Ford was trying to keep up with demand by developing more specialized machine tools and innovations in the production process.


Ford sold 32,053 of its popular Model T.

1912

Henry Ford could put Model T's out of the Highland Park plant at the rate of 26,000 each month--without any assembly lines. That gave Ford a production capacity in excess of 300,000 a year. More than 1 in every 5 automobiles on the road (22%) were Fords even before the assembly line

Just 4 years after its introduction, the Model T accounted for 3/4 of all cars on America's roads

The Ford Motor Company had 3,500 dealers nationwide in the U.S.

Time and motion studies the newly hired Clarence Avery carried out at the Ford plant in Highland Park, Michigan, led to the installation of continuous conveyor belts designed to bring parts and materials to assembly areas. This is the reverse of the moving assembly line--the chassis stayed in one place, and all the various parts came to that one place. Assemblers walked down the line from chassis to chassis. No one had yet decided to move the chassis past stocks of parts.

1913

By mid year, the Ford Motor Company was using moving lines to assemble magnetos, motors, and transmissions in its Highland Park, Michigan, plant. On the magneto line, switching to the moving assembly line cut the time required to produce one unit of this critical subassembly by 75%--from 20 minutes of labor per unit to 5 minutes labor. The flood of components coming off these lines producing major subassemblies quickly outpaced the ability of the chassis assemblers to keep up. By the end of the year, ropes and windlasses were in use to pull the chassis though the final assembly area--moving the assembly rather than the parts. Even this hastily rigged expedient dramatically increased productivity, cutting the time for chassis assembly from 12 and a half hours to 2 hrs and 40 minutes by the end of December 1913. The endless chain was installed in January 1914.

1914

In January, the Ford Motor Company installed a continuous chain to pull chassis though its Highland Park, Michigan, plant.

This moving assembly line was a product of a policy of continuous improvements in plant and process machinery that had been underway since the introduction of the Model T in 1908. More specifically, the adoption of the moving assembly line for final chassis assembly had been made possible by the program that had first brought conveyor belts for the delivery of parts and, then, in 1913 had put the production of important subassemblies onto moving lines. The moving line for final assembly made no sense until all the bottlenecks in production and delivery of components had been cleared. By the end of 1914, adjustments to the chassis assembly line had reduced the labor input for assembly of each Model T to 1.5 hrs.

At the Ford plant in Highland Park, Michigan, the effort at continuous process improvement had resulted in the installation of about 15,000 separate pieces of machinery needed to support a moving assembly line for production of the Model T.

Henry Ford promised that if the Ford Motor Company passed sales of 300,000 Model T's within the next year, his company would give a rebate to every purchaser of a T. At the end of the specified period, the company sent out checks totaling more than $15 million to 308,313 people who had purchased new Model T's.

Based on the enormous productivity gains resulting from the introduction of moving assembly lines, Ford launched the $5, 8-hour day. The move more than doubled the average wage, but Ford clearly understood that in doing so he was helping to build the market for the Model T.

1916

The introduction of the moving assembly line at Ford allowed the company to push production past 500,000 units, while dropping the price of a Model T to $440, and raising workers wages to $5 per day--twice the standard industrial wage in America. In terms of purchasing power, the Ford $5 day gave workers a daily wage that was equivalent to the weekly earnings for an industrial worker in Britain. Thus, assuming a 6-day work week for unskilled and semi-skilled workers, the Ford assemblers had twice the purchasing power of their American counterparts, 6 times the purchasing power of workers at comparable skill levels in Britain.

U.S. annual automobile production surpassed 1 million units for the first time. Over half were Ford Model T's. Ford sold 734,811 Model T's during the year. As of August 1, 1916, the runabout model sold for just $345 and the touring model was priced at $360

The Ford Model T got 20 miles per gallon of gasoline.

http://web.bryant.edu/~ehu/h364/materials/cars/cars%20_20.htm

1922
The cost reduction and price reduction cycles eventually pushed  price of Model T to US$300 and annual production passed 1 million units in 1922.
http://www.autozine.org/Archive/Ford/classic/Model_T.html


Case Study in Productivity of Model T Ford

http://www.econedlink.org/lessons/index.php?lid=668&type=educator

http://www.econedlink.org/lessons/index.php?lid=676&type=student

http://www.econedlink.org/lessons/index.php?lid=692&type=educator


Developments in Automobile Industry and Change in Human Effort
http://www.autolife.umd.umich.edu/Labor/L_Overview/L_Overview1.htm


http://www.autozine.org/Archive/Ford/classic/Model_T.html


Ford and His Methods - Full Book
https://archive.org/stream/fordmethodsandf00faurgoog#page/n48/mode/1up

Ford searched thoroughly for cheaper materials.
Ford found vanadium steel as a lighter but stronger material and used it early by setting up a plant to make vanadium steel.



http://www.autotraderclassics.com/car-article/Old+Factories%3A+Ford+Highland+Park+Plant-74957.xhtml

Clarence Avery
Determining responsibility for development of the moving assembly line
Author(s): Jay H. Heizer, (Texas Lutheran University, Seguin, Texas, USA)
Citation: Jay H. Heizer, (1998) "Determining responsibility for development of the moving assembly line", Journal of Management History (Archive), Vol. 4 Iss: 2, pp.94 - 103
http://www.emeraldinsight.com/journals.htm?articleid=871932&show=html
http://en.wikipedia.org/wiki/Clarence_Avery

Ford's Top People

http://en.wikipedia.org/wiki/Sorensen,_Charles_E.


Assembly - Ford's Innovation  http://en.wikipedia.org/wiki/Assembly_line


Thursday, November 14, 2013

The Evolution of a Manufacturing System at Toyota - Takahiro Fujimoto - 1999 - Book Information



The Evolution of a Manufacturing System at Toyota


Faculty of Economics at University of Tokyo Takahiro Fujimoto Professor

Oxford University Press, 19-Jul-1999 - Business & Economics - 400 pages


What is the true source of a firm's long-term competitive advantage in manufacturing?

Through original field studies, historical research, and statistical analyses, this book shows how Toyota Motor Corporation, one of the world's largest automobile companies, built distinctive capabilities in production, product development, and supplier management.

Fujimoto asserts that it is Toyota's evolutionary learning capability that gives the company its advantage and demonstrates how this learning is put to use in daily work.

Google Book Link with Preview facility

http://books.google.co.in/books?id=KBm8F9cI8OYC


This book is an enquiry into capabilities and performance link.

The book highlights Toyota's evolutionary learning capability.

Toyota Motor Company was founded in 1937.

But Kiichiro Toyoda started preparation for building an automobile in 1931.
In May 1935, Toyoda completed the first prototype A1, a five person sedan.
Toyoda's Kariya assembly plant was started in 1936
Kiichiro's goals was to reach costs of Americal automobile plants with a production quantity of 20,000 to 30,000 vehicles per year.

Koromo plant with capacity of 2000 vehicles per month was started in 1938.

Toyota's productivity was roughly one tenth of productivity of American companies like Ford and General Motors.
1945, Toyoda set a target of reaching Americal Productivity in 3 years.  The effort resulted in increase of productivity by several times by 1950 and by 10 times by 1955.  - Page 38

Wednesday, November 13, 2013

Industrial Engineering Execution System

IEES (Industrial Engineering Execution System) helps the sewing industry and your industrial engineers set time standards and rationalize work methods to minimize your daily operating costs and maximize your productivity. You can analyze and plan every single operation in the sewing of a garment, whether its a machine or manual operation.  With IEES you can cost your products, with a higher level of accuracy, before you start the production process.

IEES  gives you the knowledge to take the guesswork out of the garment pre-production process.

Awards for G.PRO IEES

Tracking

Collect and store labor standards
Create and track detail work methods
Create and track cost estimates
Create and track procedures and methods
Easier time standards development

Quick search across organizational wide IE data
Benchmark standards based on MTM-2
Update standards across organization
Workflow

Quick Search
Secure data
Integration with G.PRO SDT
Version control
Copy/Paste Clipboard
Remote video analysis

http://www.gprotechnologies.com/products/gpro-iees/

Toyota Production System -An Integrated Approach to JIT 4th Edition - Book Information


The book is larger  than Taiichi Ohno's book and copy right is with Toyoto Motors

450 pages. It is there in NITIE library.


http://books.google.co.in/books?id=cIRR_liD_48C

Toyota Production System: A Systems Inquiry - Properties of TPS - Marksberry

The Modern Theory of the Toyota Production System: A Systems Inquiry of the World’s Most Emulated and Profitable Management System

Phillip Marksberry
CRC Press, 27-Nov-2012 - Business & Economics - 451 pages


Numerous books have been written about Toyota's approach to workplace improvement; however, most describe Toyota's practices as case studies or stories. Designed to aid in the implementation of Lean manufacturing, The Modern Theory of the Toyota Production System: A Systems Inquiry of the World’s Most Emulated and Profitable Management System explains that your organization already has what it takes to succeed with TPS and what’s probably missing is balance.

Bridging the gap between implementation and theory, this text is the first of its kind to use systems theory to study how the pieces of the Toyota Production System (TPS) work together to achieve this much needed balance. Lean practitioners will learn how to use system theory to improve overall decision making when applying Lean or Toyota-like management systems.

Explaining that the glue that holds the pieces of TPS together is just as important as the pieces themselves, the book provides you with invaluable guidance in the implementation of Lean manufacturing from a management perspective. It outlines a blueprint to help you develop a clear understanding of how the pieces of TPS need to come together so you can achieve something greater than what’s possible with the individual pieces.

Properties of TPS

Holism
Goal Seeking - It used Problem Solving methods and Industrial Engineering for it.
Regulation
Differentiation
Hierarchies
Transformation
Requisite Variety
Interrelationship and Interdependence
Equifinality


Google Book Link with Preview facility
http://books.google.co.in/books?id=8WU7drWVgT8C

Interesting Two-Day Industrial Engineering Course - China

Course Outlines
Day 1
9:00-10:20
10:20-10:40
10:40-12:00
12:00-13:00
13:00-15:00
15:00-15:20
15:20-17:00

Day 1

1.Basic Concept of IE
Lean Production and IE
Requirements of Supervisors
 What is Value-added Work
Major Tools of IE
Tea Break

2.Foundations of Manufacturing
Efficiency Improvements
How to Find Current Manufacturing Problems
Seek and Analyze Eight Wastes of Shop Floor
How to Reduce Wastes and Make the Process
Value-added

Lunch

3.How to Analyze and Eliminate
Process wastes
Briefing of Process Analysis
Marks of Process Analysis
Steps of Process Analysis
Data Collection, Process Analysis, Improvement
Plans
Case Study on Process Analysis
Discussion and Practice
Tea Break

4.How to Improve Man-machine
Efficiency
Operation Analysis
Man-Machine Analysis
Working Process Case Study
Jointed Working Process Cases Study
Operator Workstation Analysis
 Introduction of Real Cases
Discussion and Practice


Day 2


9:00-10:20
10:20-10:40
10:40-12:00
12:00-13:00
13:00-15:00
15:00-15:20
15:20-17:00

5. How to Eliminate Motion Waste
(Motion Study)
Key Points of Motion Improvement
Purposes of Motion Study
21 Motion Improvement Factors
Principles of Motion Economy——21 Motion
Wastes
Aplication of Motion Economy
Case Study
Discussion and Practice
Tea Break

6.Pre-Determined Time Standard
Purpose of PTS
OST- Operation Standard Time
Introduction of Pre-determined Time Standard
Allowance
Work Measurement
Case Study
Lunch

7. How to Shorten the Change-over
Time
Definition of SMED
Wastes of Change Over
8 Steps for Quick Change-over
Examples and Skills of Quick Change-over
Case Study on Quick Changer-Over
Tea Break

8. Basic Concept of SMED
On-Site Practice on SMED
Course Summary and Closure


http://www.chinamesc.com/PDF/products/IE-EN-JX.pdf

Monday, November 11, 2013

Jigs and Fixtures - Electronics Assembly

Tooling design for the electronics industry


Flow solder carriers
Screen Print Jigs
PCB Test Fixtures
Press Tool Fixtures
Surface Mount Carriers
PCB Alignment Plates
Pin Placement Assemblies
Assembly Fixtures & Tooling
Conformal Coating Carriers
Mobile Phone Test & Accessory Jigs
Standard & Adjustable Flow-Solder Carriers

http://www.imatltd.co.uk/electronics.asp
Company Information
Unit 1 Brabazon Court, Borman, Lichfield Road
Industrial Estate, Tamworth, Staffordshire, B79 7TA

Electronic Assemblies Tests


Designed jigs for testing electronic assemblies for final approval during the assembly process.
The jig enables testing the integration of the electronic assembly into the motherboard, taking into consideration its physical dimensions.
Testing process is further shortened by integrating connector in a single step.
http://www.plantek.co.il/eng/testing-and-manufacturing-jigs-and-fixtures/electronic-assemblies-tests/

Jigs and Fixtures With FDM and PolyJet
http://www.stratasys.com/applications/manufacturing-tooling/jigs-and-fixtures

ELECTRONIC ASSEMBLY – MISCELLANEOUS TOOLING


Brass header weights
Component insertion hand tools
Jig / Card holder
Conformal Coating Jig
Pneumatic Press
Route Support Fixtures
Extraction tooling
http://www.npi-solutions.com/key-services/pcb-assembly-tooling/electronic-assembly-miscellaneous-tooling
Units 32A, D & E, 20 Kyle Road, Irvine Ind. Est.,Irvine, Ayrshire, KA12 8LH


Electronic Industry Tooling
http://www.shamrock.co.nz/products-services/electronic-industry-tooling

Brazing and Sealing Jigs and Fixtures
http://www.mersen.com/uploads/tx_mersen/2-brazing-sealing-jigs-and-fixtures-mersen.pdf

PCB assembly - Jig Storage racks
http://indeonline.in/w/wp-content/uploads/2013/04/Component-Racks-Iteco.pdf


Advertisement for a Methods Analysts in Continental Electronics Corporation
http://www.contelec.com/hr/methods_analyst.pdf
One component of job: Designs tools, jigs and assembly fixtures as required.