The Automotive Industry: a Source of Technological and Managerial Innovation
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Components for the Automotive Industry
Components for the Automotive Industry Automotive in Focus – Transmission Control 04 With its global emphasis and almost Components, Materials and Technologies 13,000 employees, the “Fortune 500” Exhaust Line 06 company Heraeus is in every market. for the Automotive Industry Having a localized presence Heraeus can adjust to the requirements of individual Power Assisted Steering 08 countries.The Heraeus Precious Metal and Technology group achieved total sales of 22 billion Euros in 2010. Spark Plugs 10 Cockpit 12 In close cooperation with automotive OEMs and suppliers, Heraeus develops innovative, technical components and materials for the Headlights 14 automotive industry. For electronics Heraeus produces among others Sensors 16 bonding wires, special thick film and solder pastes, precious metal powders and ultrafine solder powders, and polymers. Heraeus Power Electronics products are used, for instance, in power for Electro-mobility 18 electronics and many control devices, e.g. for the transmission, engines, ABS (Anti- Safety 20 lock Braking System), and airbags. A variety of metal and precious metal parts from Heraeus ensures the smooth functioning of the electrical Heraeus Service safety systems, e.g. emergency braking and and Quality Assurance 22 lane assist systems, and the ESP (Electronic Stability Program). At the same time, platinum temperature sensors and catalyst coatings are employed in the exhaust systems of cars, trucks, and motorcycles. The platinum temperature sensors monitor, among other things, the turbocharger and the burn-off of the diesel particle filter. Heraeus was founded in 1851. Today the precious metal and technology group is globally represented on a very broad basis with a comprehensive product portfolio and occupies leading positions in all important market segments. -
Finding a New Balance in the Automotive Industry Driving Responsible Innovation and Transformation for the Next Decade Executive Summary
Finding a new balance in the automotive industry Driving responsible innovation and transformation for the next decade Executive Summary The automotive sector’s already dizzying pace of change is accelerating. This report gives Capgemini’s perspective on the most important changes that can be expected between now and 2030, and the adaptations that automotive companies will have to make to ensure continued success. 2 Finding a new balance in the automotive industry Following eras of industrialization these requirements: Subscriptions (1920s to 1970s), globalization (late and agency sales will become more 1970s to 2015), and digitalization, a common, for example. new era of change is emerging, driven • Intelligent Industry: The next by three megatrends that automotive generation of digital engineering companies are recognizing as critical to and manufacturing will build on their future: technologies such as artificial intelligence (AI), cloud, and the • Sustainability: Societal and internet of things (IoT) to create a regulatory pressure means that data- and software-driven industry. companies need to adopt an end-to- Intelligent products and systems, end approach to sustainability that operations, and services will improve addresses not just the environmental uptime, reduce costs, and boost impact of the vehicle, but that of efficiency, and hence increase value every aspect of their operations and for companies, their customers, those of their partners. To tackle this and their partners. Software will issue adequately, Original Equipment play a crucial role in the automotive Manufacturers (OEMs) will need industry and influence it radically. to change their culture. They will also have to rethink the way they Increasingly, too, automotive companies collaborate with their suppliers and need to operate and establish a partners to realize the concept of a clear position within a wider mobility circular economy. -
Manufacturing
Best Practices for Businesses to Reopen MANUFACTURING • Face coverings are encouraged but not required if an employee can isolate or separate their work area, either by PREPARE THE closing doors or using other physical PREPARE THE barriers to maintain six foot distance BUILDING from other individuals at all times, WORKFORCE • Zone the factory floor and encourage including individuals in adjacent • Train employees in current COVID-19 employees to remain in their cubicles or hallways. health and workplace guidelines designated area to the extent possible. to include procedures for social • Even when practicing social distancing, distancing, timeclock usage, use • Place partitions such as plexiglass to masks or face coverings must be worn when walking through hallways or of common areas, disinfecting separate people that work together in expectations and proper PPE usage. the production process. when two or more people are together in a space such as an office, conference Training should be included in daily • Increase ventilation rates and the room, or restroom. safety meetings to frequently remind percentage of outdoor air that employees and employers of their circulates into the system. • Face coverings are not required if responsibilities. wearing a face covering would subject • Assemble a team whose the person to an unsafe working • Offer teleworking where appropriate. responsibilities include implementing condition, as determined by federal, Give employees flexibility regarding and monitoring guidelines provided by state, or local occupational safety returning to the factory / office. the CDC, OSHA, the State, and by the regulators or workplace guidelines. For • Implement a daily screening process company. exceptions to this requirement, please for workers and other personnel which see the latest . -
Teaching Lean Manufacturing Principles in a Capstone Course with a Simulation Workshop
Session 2163 Teaching Lean Manufacturing Principles in a Capstone Course with a Simulation Workshop Kenneth W. Stier Department of Technology Illinois State University Mr. John C. Fesler, Mr. Todd Johnson Illinois Manufacturing Extension Center Bradley University/Illinois State University Introduction Traditionally, improvements in manufacturing costs have been achieved by capital investments in new equipment intended to the lower manufactured costs per unit. Often, the new equipment was designed to achieve the lower costs through faster production speeds, more automation, etc. Typical focus was on pieces per minute and often gave inadequate consideration to size of production runs, changeover times and inventory carrying costs. Many times, the new automated, higher speed equipment required lengthy changeovers before a different product could be run, resulting in management believing the most cost-effective practice was long production runs (large batch sizes). In today's manufacturing climate, firms are re-thinking many of the traditional ways of achieving improvements, and exploring new methods. One in particular, lean manufacturing is a practice that is receiving quite a bit of attention today1,2,3,4. Manufacturers have embraced lean manufacturing during the slow down in the economy as one method of remaining profitable5. Having students experience lean manufacturing concepts in the laboratory can have a positive effect on the experiences offered to the students prior to them entering the industrial setting. It is important that faculty provide students with the experiences that develop a strong conceptual framework of how this management practice will benefit the industry in which they work. Many of our students learn best when they are actively engaged in activities that emphasize the concepts that we are trying to teach. -
Technology Roadmap: Materials and Manufacturing
Technology Roadmap: Materials and Manufacturing Shashank Modi Abhay Vadhavkar © Center for Automotive Research, Ann Arbor, Michigan USA Introduction ......................................................................................................................................3 The World We Know ..........................................................................................................................3 Materials ................................................................................................................................................................... 3 Manufacturing .......................................................................................................................................................... 5 Technology Drivers ............................................................................................................................5 The World on the Horizon ..................................................................................................................7 Materials ................................................................................................................................................................... 7 Manufacturing .......................................................................................................................................................... 8 Enablers and Threats ........................................................................................................................ 11 Risk of -
Manufacturing Engineering Technology
MANUFACTURING ENGINEERING TECHNOLOGY “Modern manufacturing activities have become exceedingly complex because of rapidly increasing technology. This has increased the demand for highly skilled manufacturing technologists, engineers, and managers.” – Society of Manufacturing Engineers Manufacturers in the United States account for 12.5% of the total economic output employing almost 9% of the nation’s workforce. (National Association of Manufacturers, 2015) DEGREE Top 3 Reasons to Choose BACHELOR OF SCIENCE (B.S.) Manufacturing Engineering Technology (MFET) Manufacturing Engineering Students in the major are introduced to the fundamentals of Technology engineering, materials, and production processes used within industry. AT MILLERSVILLE UNIVERSITY The program provides in-depth technical content in advanced manufacturing with an emphasis on automated manufacturing and 1. Despite misconceptions that “manufacturing is dead” or computer integrated manufacturing. Students to design, develop, and that “all manufacturing has moved overseas” the National construct projects in laboratory-based courses. Technologies Network for Manufacturing Innovation (commonly commonly used in industry are emphasized throughout the curriculum. known as Manufacturing USA) estimates that the Seniors are encouraged to participate in a cooperative education or manufacturing workforce employs approximately 12 internship experience to further enhance their knowledge in technical million people nationwide. areas within an industrial environment. 2. Manufacturers in Pennsylvania -
Understanding Imaging and Metrology with the Helium Ion Microscope
Understanding Imaging and Metrology with the Helium Ion Microscope Michael T. Postek, Andras E. Vladar and Bin Ming National Institute of Standards and Technology Frontiers of Characterization and Metrology for Nanoelectronics CNSE University at Albany May 11-14, 2009 Disclaimer • Certain commercial equipment is identified in this report to adequately describe the experimental procedure. Such identification does not imply recommendation or endorsement by the National Institute of Standards and Technology, nor does it imply that the equipment identified is necessarily the best available for the purpose Nanoelectronics Manufacturing • The helium ion microscope is an exciting new technology for nanotechnology and nanomanufacturing. – Initially, appears straightforward – But, much must be understood • Especially to obtain meaningful quantitative information. • The NIST Manufacturing Engineering Laboratory (MEL) has supported “nanomanufacturing” through the development of measurements and standards since about 1999. • Semiconductor manufacturing is “nanomanufacturing” and MEL has supported SEMATECH since its inception • New magnification calibration sample Nanoelectronics Manufacturing • Development of successful nanomanufacturing is the key link between scientific discovery and commercial products • Revolutionize and possibly revitalize many industries and yield many new high-tech products • Without high-quality imaging, accurate measurements and standards at the sub- nanometer scale, nanomanufacturing cannot succeed Imaging and Measurements -
Chemistry and the Automotive Industry Jeremy Pedigo Western Kentucky University
Western Kentucky University TopSCHOLAR® Masters Theses & Specialist Projects Graduate School 5-1-2008 Chemistry and the Automotive Industry Jeremy Pedigo Western Kentucky University Follow this and additional works at: http://digitalcommons.wku.edu/theses Part of the Chemistry Commons, and the Environmental Health and Protection Commons Recommended Citation Pedigo, Jeremy, "Chemistry and the Automotive Industry" (2008). Masters Theses & Specialist Projects. Paper 372. http://digitalcommons.wku.edu/theses/372 This Thesis is brought to you for free and open access by TopSCHOLAR®. It has been accepted for inclusion in Masters Theses & Specialist Projects by an authorized administrator of TopSCHOLAR®. For more information, please contact [email protected]. CHEMISTRY AND THE AUTOMOTIVE INDUSTRY A Thesis Presented to The Department of Chemistry Western Kentucky University Bowling Green, KY In Partial Fulfillment Of the Requirements for the Degree Master of Science By Jeremy Allen Pedigo May 2008 CHEMISTRY AND THE AUTOMOTIVE INDUSTRY Date Recommended l\pfA ISt Director of Thesis 0 oG\a //Vw' Dean, Graduate Studies and Research Date ACKNOWLEDGEMENTS A special thanks is extended to Sumitomo Electric Wiring Systems, Inc. for use of information, tools and resources, and Western Kentucky University for its assistance with third-party laboratory testing. TABLE OF CONTENTS Chapter Page ABSTRACT vii I. INTRODUCTION 1 II. LITERATURE REVIEW 6 A) Environmental compliance 6 B) Third party laboratory testing 14 C) Future of the chemist in the U.S. automotive industry 15 III. METHODS 17 Method 1: Environmental compliance 17 A) Chemical reporting by the IMDS database 17 B) Internal XRF screening 18 Method 2: Third party laboratory testing 18 A) Part testing for pigments containing the four heavy metals.. -
Manufacturing Activities During the Covid-19 Public Health Emergency
INTERIM GUIDANCE FOR MANUFACTURING ACTIVITIES DURING THE COVID-19 PUBLIC HEALTH EMERGENCY When you have read this document, you can affirm at the bottom. As of June 26, 2020 Purpose This Interim Guidance for Manufacturing Activities during the COVID-19 Public Health Emergency (“Interim COVID-19 Guidance for Manufacturing”) was created to provide owners/operators of manufacturing sites and their employees and contractors with precautions to help protect against the spread of COVID-19 as manufacturing sites reopen. These guidelines are minimum requirements only and any employer is free to provide additional precautions or increased restrictions. These guidelines are based on the best-known public health practices at the time of Phase I of the State’s reopening, and the documentation upon which these guidelines are based can and does change frequently. The Responsible Parties – as defined below – are accountable for adhering to all local, state and federal requirements relative to manufacturing activities. The Responsible Parties are also accountable for staying current with any updates to these requirements, as well as incorporating same into any manufacturing activities and/or Site Safety Plan. Background On March 7, 2020, Governor Andrew M. Cuomo issued Executive Order 202, declaring a state of emergency in response to COVID-19. Community transmission of COVID-19 has occurred throughout New York. To minimize further spread, social distancing of at least six feet must be maintained between individuals, where possible. On March 20, 2020, Governor Cuomo issued Executive Order 202.6, directing all non-essential businesses to close in-office personnel functions. Essential businesses, as defined by Empire State Development Corporation (ESD) guidance, were not subject to the in-person restriction, but were, however, directed to comply with the guidance and directives for maintaining a clean and safe work environment issued by the New York State Department of Health (DOH), and were strongly urged to maintain social distancing measures to the extent possible. -
Increased Automobile Fuel Efficiency and Synthetic Fuels: Alternatives for Reducing Oil Imports
Increased Automobile Fuel Efficiency and Synthetic Fuels: Alternatives for Reducing Oil Imports September 1982 NTIS order #PB83-126094 Library of Congress Catalog Card Number 82-600603 For sale by the Superintendent of Documents, U.S. Government Printing Office, Washington, D.C. 20402 Foreword This report presents the findings of an assessment requested by the Senate Com- mittee on Commerce, Science, and Transportation. The study assesses and compares increased automobile fuel efficiency and synthetic fuels production with respect to their potential to reduce conventional oil consumption, and their costs and impacts. Con- servation and fuel switching as a means of reducing stationary oil uses are also con- sidered, but in considerably less detail, in order to enable estimates of plausible future oil imports. We are grateful for the assistance of the project advisory panels and the many other people who provided advice, information, and reviews. It should be understood, how- ever, that OTA assumes full responsibility for this report, which does not necessarily represent the views of individual members of the advisory panels. Director Automobile Fuel Efficiency Advisory Panel Michael J. Rabins, Chairman Wayne State University Maudine R. Cooper* John B. Heywood National Urban League, Inc. Massachusetts Institute of Technology John Ferron John Holden National Automobile Dealers Association Ford Motor Co. Donald Friedman Maryann N. Keller Minicar, Inc. Paine, Webber, Mitchell, & Hutchins Herbert Fuhrman Paul Larsen National Institute for GMC Truck and Coach Division Automobile Service Excellence Robert D. Nell James M. Gill Consumers Union The Ethyl Corp. Kenneth Orski R. Eugene Goodson** German Marshall Fund of the United States Hoover Universal, Inc. -
Productivity and Costs by Industry: Manufacturing and Mining
For release 10:00 a.m. (ET) Thursday, April 29, 2021 USDL-21-0725 Technical information: (202) 691-5606 • [email protected] • www.bls.gov/lpc Media contact: (202) 691-5902 • [email protected] PRODUCTIVITY AND COSTS BY INDUSTRY MANUFACTURING AND MINING INDUSTRIES – 2020 Labor productivity rose in 41 of the 86 NAICS four-digit manufacturing industries in 2020, the U.S. Bureau of Labor Statistics reported today. The footwear industry had the largest productivity gain with an increase of 14.5 percent. (See chart 1.) Three out of the four industries in the mining sector posted productivity declines in 2020, with the greatest decline occurring in the metal ore mining industry with a decrease of 6.7 percent. Although more mining and manufacturing industries recorded productivity gains in 2020 than 2019, declines in both output and hours worked were widespread. Output fell in over 90 percent of detailed industries in 2020 and 87 percent had declines in hours worked. Seventy-two industries had declines in both output and hours worked in 2020. This was the greatest number of such industries since 2009. Within this set of industries, 35 had increasing labor productivity. Chart 1. Manufacturing and mining industries with the largest change in productivity, 2020 (NAICS 4-digit industries) Output Percent Change 15 Note: Bubble size represents industry employment. Value in the bubble Seafood product 10 indicates percent change in labor preparation and productivity. Sawmills and wood packaging preservation 10.7 5 Animal food Footwear 14.5 0 12.2 Computer and peripheral equipment -9.6 9.9 -5 Cut and sew apparel Communications equipment -9.5 12.7 Textile and fabric -10 10.4 finishing mills Turbine and power -11.0 -15 transmission equipment -10.1 -20 -9.9 Rubber products -14.7 -25 Office furniture and Motor vehicle parts fixtures -30 -30 -25 -20 -15 -10 -5 0 5 10 15 Hours Worked Percent Change Change in productivity is approximately equal to the change in output minus the change in hours worked. -
The Making of Hollywood Production: Televising and Visualizing Global Filmmaking in 1960S Promotional Featurettes
The Making of Hollywood Production: Televising and Visualizing Global Filmmaking in 1960s Promotional Featurettes by DANIEL STEINHART Abstract: Before making-of documentaries became a regular part of home-video special features, 1960s promotional featurettes brought the public a behind-the-scenes look at Hollywood’s production process. Based on historical evidence, this article explores the changes in Hollywood promotions when studios broadcasted these featurettes on television to market theatrical films and contracted out promotional campaigns to boutique advertising agencies. The making-of form matured in the 1960s as featurettes helped solidify some enduring conventions about the portrayal of filmmaking. Ultimately, featurettes serve as important paratexts for understanding how Hollywood’s global production work was promoted during a time of industry transition. aking-of documentaries have long made Hollywood’s flm production pro- cess visible to the public. Before becoming a staple of DVD and Blu-ray spe- M cial features, early forms of making-ofs gave audiences a view of the inner workings of Hollywood flmmaking and movie companies. Shortly after its formation, 20th Century-Fox produced in 1936 a flmed studio tour that exhibited the company’s diferent departments on the studio lot, a key feature of Hollywood’s detailed division of labor. Even as studio-tour short subjects became less common because of the restructuring of studio operations after the 1948 antitrust Paramount Case, long-form trailers still conveyed behind-the-scenes information. In a trailer for The Ten Commandments (1956), director Cecil B. DeMille speaks from a library set and discusses the importance of foreign location shooting, recounting how he shot the flm in the actual Egyptian locales where Moses once walked (see Figure 1).