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词条 Steeluniversity.org
释义

  1. Objectives

  2. Background

  3. History

  4. E-learning resources

     Steel applications  Steel processing  Ferrous metallurgy  Sustainability 

  5. Available languages

  6. steelChallenge

  7. References

  8. External links

{{Use dmy dates|date=December 2012}}{{multiple issues|{{notability|Web|date=March 2013}}{{COI|date=October 2015}}
}}{{Infobox Website
| name = steeluniversity
| logo = Steeluniversity -Logo.jpg
| url = http://www.steeluniversity.org
| commercial = Non-profit
| type = E-learning
| language = English, Spanish, Chinese (traditional & simplified), Korean, Russian, German
| registration = Optional
| owner = World Steel Association
| author = World Steel Association, MATTER , University of Liverpool
| launch date = October 2003
| current status = Online
}}

steeluniversity is a collection of free-to-use E-learning resources and interactive simulations covering major aspects of iron and steelmaking. It provides the underlying scientific, metallurgical and engineering principles and environmental aspects of the production, use and recycling of steel. These internet-delivered resources are aimed at undergraduate students of metallurgy, materials science and engineering subjects as well as graduate employees in the steel industry supply chain.

Objectives

The basic objective of steeluniversity.org is to inform university students and their teachers about steel technologies and to attract young people to the global steel industry. Another major aim is to reduce the cost of in-service training at steel companies by providing them with freely available training and professional development material. In view of the decline in metallurgy-related courses in universities and the retirement of professors and steel industry experts, it aims to sustain knowledge of ferrous metallurgy by joint efforts of academia and the steel industry.

Background

A gradual decline in the number of students enrolling in science subjects such as physics and mathematics can be seen in many industrialized countries. This phenomenon has been indicated in several studies. The Organisation for Economic Co-operation and Development (OECD) Global Science Forum reports in a study that the relative share of science and technology graduates declined in 10 out of 16 member countries between 1993-2003.[1] Metallurgy is one of the most affected disciplines in this trend in terms of available courses, overall enrolments and the number of graduates. An important factor relating to this change in US universities is described as transformation in the late twentieth century of metallurgy departments into ‘material sciences’ departments.[2][3][4] A similar pattern in other Western European countries e.g. in the UK [5] is reported during the same time span.

Steel industry, once an attractive career destination for metallurgy graduates is directly affected by these changes and now faces the challenge of replacing the retiring work force. The idea of preserving knowledge of metallurgy and attracting young people towards career in the steel industry was born out of this challenge.

History

In response to the declining skilled workforce in the steel industry, the International Iron and Steel Institute (IISI) took the initiative by creating a collection of web-based E-learning resources on metallurgy in a pilot project named Internet Learning of Steel Applications and Processes (ILSAP). Initially two introductory modules; Secondary Steelmaking and Steel for Automotive Applications were launched in partnership with the MATTER project at the University of Liverpool on 1 August 2002[6]

Following the success of the pilot project, the IISI board of governors approved a budget of €2.5 million for development of an extensive set of E-learning resources and the project was renamed steeluniversity.org in October 2003.[7]

E-learning resources

The E-learning modules on the website cover major aspects of iron and steelmaking grouped in four different categories:

{{col-begin}}{{col-1-of-4}}Steel applications
  • Automotive
  • Construction
  • Engineering Steels
  • Offshore
  • Packaging
{{col-2-of-4}}Steel processing
  • Process Route Overview
  • Basic Oxygen Steelmaking
  • Electric Arc Furnace
  • Secondary Steelmaking
  • Continuous Casting
  • Hot Rolling
  • Heat Treatment of Steel
{{col-3-of-4}}Ferrous metallurgy
  • Thermodynamics and Kinetics
  • Mechanical Properties
  • Strengthening Mechanisms
{{col-4-of-4}}Sustainability
  • Steel and the Environment
  • Life Cycle Assessment
  • Environmental Management
{{col-end}}

Steel applications

The modules in this section address the selection of steels for different steel markets – such as automotive, construction, engineering and offshore applications. Acting as the materials advisor in a multidisciplinary team, the user aims to select suitable steel in order to satisfy design specifications for a particular application. The major engineering design equations are studied during this process in order to select and compare the performance of steel and other metals and materials.

Steel processing

This section contains a series of interactive simulations of major steelmaking processes from raw materials, Basic oxygen steelmaking (BOS) and Electric arc furnace (EAF) steelmaking, secondary steelmaking, Continuous casting and Hot rolling. Different steel grades can be processed using two levels of operation which are suitable for students and graduates in the industry. The ‘student level’ provides a basic functionality enabling the user to understand and control the process principles without too many operational complications, whereas the ‘industry level’ has advanced functionality and the user needs to deal with practical disturbances that are not anticipated in advance. Real-time feedback is given on the composition and quality of the steel, on process time and temperature and incurred costs, to allow the process to be optimized. A user guide and more conventional supporting e-learning units are also available within each module to enable the learner to better understand the reactions. For example, in the secondary steelmaking module, there are sections on deoxidation, desulphurization, decarburization and dehydrogenation.

Ferrous metallurgy

The section on ferrous metallurgy contains modules on thermodynamics and kinetics, including strengthening mechanisms, phase transformation, recrystallisation and grain growth, heat treatment and steel properties. An introduction is provided on steel specifications, with exercises to ensure that they can be accurately interpreted. The learner can check mechanical properties of a given grade of steel by conducting virtual tensile, Charpy impact and hardness tests as well.

Sustainability

This section introduces the environmental aspects of steelmaking, usage and recycling processes. The learner gets a basic idea of Life Cycle Thinking and the method of Life Cycle Assessment (LCA), and its practical application. In addition selected LCA scenarios facing the steel industry and its customers in the automotive and construction sectors can be explored.

Available languages

The e-learning modules were initially only available in English. Currently, several modules can be found in different languages such as Spanish, Chinese (traditional & simplified), Korean, Russian and German. The process of translation is not yet complete and a number of modules are in various stages of proof reading.

steelChallenge

The steelChallenge is an annual competition organized by steeluniversity.org for students and steel industry employees. Using one or more of the steelmaking simulations on the steeluniversity.org website, the entrants are to produce a particular steel grade at the lowest cost. The competition runs for a 24-hour period during which multiple attempts are allowed. Awards are given for the best, one for the best industry entry and the other for the best university entry. Other local prizes sponsored by steel companies are also presented at the event.[8]

References

1. ^OECD Science Technology and Industry Outlook 2006, {{ISBN|978-92-64-02848-7}} pp. 98
2. ^Trillo E.; Stafford S. W.; Murr L. E. (1998). Recruiting and retaining students in metallurgy and materials: One university's experience. JOM Journal of the Minerals, Metals and Materials Society. Vol. 50, No. 4. pp. 13-14. (Springer Boston). ISSN 1543-1851
3. ^Flemings M. C. (2001). Why materials science and engineering is good for metallurgy. Metallurgical and Materials Transactions A. Vol. 32, No. 4. pp. 853-860 (Springer Boston). {{ISSN|1543-1940}}
4. ^Mechii M. (2006). Thoughts on the Occasion of the Second Transformation in Material Science. Material Science Forum. Vol. 512. pp. 1-4 (Trans Tech Publications Switzerland). {{ISSN|0255-5476}}
5. ^Cottrell A. (1976), The Task for the Educator. Philosophical Transactions of the Royal Society of London, Series A (Mathematical and Physical Sciences). Vol. 282. No. 1307. pp. 467-471.
6. ^{{cite web|url=http://www.worldsteel.org/?action=newsdetail&jaar=2002&id=64|title=Make advanced steels online!|publisher=IISI Newsletter 1 August 2002|accessdate=2008-05-08}}
7. ^{{cite web|url=http://www.worldsteel.org/?action=newsdetail&jaar=2003&id=80|title=IISI-37 / 07 / IISI Board of Directors approve € 2.5 million for Internet-based 'steel university' learning facility.|publisher=IISI Newsletter 6 October 2003|accessdate=2008-05-08}}
8. ^{{cite web|url=http://www.entrepreneur.com/tradejournals/article/172987368.html|title=Steelmaking challenge enables simulating production online|publisher=Advanced Materials & Processes:EMERGING TECHNOLOGY, Entrepreneur.com; Dec 2007|accessdate=2008-04-22}}

External links

  • Steeluniversity.org
  • World Steel Association

3 : Educational websites|Distance education|Steelmaking

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