Teaching 4.0

IF 1.5 4区 工程技术 Q3 ENGINEERING, CHEMICAL
Prof. Dr. Martin Bertau, Dr. Ines Aubel
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引用次数: 0

Abstract

When the term Industry 4.0 was coined in 2011, a spirit of optimism about a new, digital age spread. Politicians reacted immediately and as early as 2012, the German Federal Ministry of Education and Research (BMBF) provided universities with funding to support this transformation process in student education.

The special issue Industry 4.0 – Teaching 4.0 shows how dynamic this topic has become in university teaching, which has long been a driver and innovation engine of digital methods. Although the degree of implementation in lectures, tutorials and practical courses varies from university to university, it is nevertheless unmistakable.

A key driving force was certainly the time of the pandemic, when teaching had to be ensured during lockdown. Video lectures and the provision of digital teaching materials were just the beginning. At TU Bergakademie Freiberg, the chemistry practical course was ensured throughout the entire pandemic period, which would not have been possible without the existing infrastructure of digital test stands. Today, the term “remote lab” is used for this, which is ideal at a time when real-time communication is becoming increasingly important and the 5G mobile communications standard has become a location factor. Much will also change in the chemical industry. The traditional control room will evolve into remote control rooms. Similar to call centers, it will be possible to book digital control room times with service providers. Training on such test benches prepares students for their everyday work as industrial chemists at an early stage. Other advantages, such as the continuation of teaching in terms of equal opportunities for pregnant women, show how much the digital transformation in education is closing long overdue gaps. New ways of communication are opening up in lectures, including the participation of foreign-language listeners on the basis of appropriate tools.

The articles in this special issue show the advanced state of university teaching in this country, especially in an international context, and how we can optimally prepare the young generation for the challenges of the future. This also includes methods such as gamification, some of which make experienced teaching staff's hair stand on end. They show how universities are once again taking on a much stronger role in shaping transformation processes. Experienced staff may face serious challenges in dealing with the new technologies. The example of artificial intelligence (AI) is pathognomonic. Instead of dismissing the possibilities of AI, falling into a defensive stance and coming up with sanctioning measures, it would have been a good idea to provide didactic support in dealing with AI at an early stage, impart knowledge and promote creativity.

The transformation towards a new self-image of universities is taking place at a rapid and dynamic pace. Students and teaching staff would do well to approach each other and see this transformation as an opportunity to help shape it.

From this, we derive another very important topic, namely education in the STEM subjects. Without wanting to judge the choice of study place here, the mechanization and digitalization of university teaching is an invitation to students to get excited about the digital possibilities of modern studies, about what universities are: Visionary, always one step ahead for new developments.

Martin Bertau

Ines Aubel

教学 4.0
2011 年工业 4.0 一经提出,一种对全新数字化时代的乐观精神便开始蔓延。政治家们立即做出反应,早在2012年,德国联邦教育与研究部(BMBF)就为大学提供资金,支持学生教育的这一变革进程。"工业4.0 - 教学4.0 "特刊展示了这一主题在大学教学中的动态发展,而大学教学长期以来一直是数字化方法的驱动力和创新引擎。虽然各大学在授课、辅导和实践课程中的实施程度不尽相同,但这一点是毋庸置疑的。大流行病时期是一个关键的推动力,当时必须在封锁期间确保教学。视频讲座和数字教材的提供只是一个开始。在弗莱堡技术大学,化学实践课程在整个大流行期间都得到了保证,如果没有现有的数字试验台基础设施,这是不可能实现的。如今,"远程实验室 "一词已用于此,在实时通信变得越来越重要以及 5G 移动通信标准已成为位置因素的今天,这是一个理想的选择。化工行业也将发生很大变化。传统的控制室将演变为远程控制室。与呼叫中心类似,可以与服务提供商预订数字控制室时间。在这样的试验台上进行培训,可以让学生在早期阶段就为工业化学家的日常工作做好准备。其他优势,如继续为孕妇提供平等的教学机会等,都表明教育领域的数字化转型正在缩小早该缩小的差距。本特刊中的文章展示了本国大学教学的先进水平,尤其是在国际背景下,以及我们如何为年轻一代迎接未来挑战做好最佳准备。这其中还包括游戏化等方法,其中一些方法让经验丰富的教学人员如坐针毡。它们展示了大学如何再次在塑造转型过程中发挥更大的作用。经验丰富的教职员工在应对新技术时可能会面临严峻挑战。人工智能(AI)就是一个典型的例子。与其否定人工智能的可能性、采取防御姿态和制裁措施,不如在早期阶段就提供应对人工智能的教学支持、传授知识和促进创造力。学生和教职员工不妨相互接近,将这种转变视为帮助塑造这种转变的机会。在此,我们不想对学习地点的选择进行评判,但大学教学的机械化和数字化是对学生的一种邀请,让他们对现代学习的数字化可能性感到兴奋,对大学的本质感到兴奋:马丁-贝尔托-伊内斯-奥贝尔(Martin BertauInes Aubel)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Chemie Ingenieur Technik
Chemie Ingenieur Technik 工程技术-工程:化工
CiteScore
3.40
自引率
15.80%
发文量
601
审稿时长
3-6 weeks
期刊介绍: Die Chemie Ingenieur Technik ist die wohl angesehenste deutschsprachige Zeitschrift für Verfahrensingenieure, technische Chemiker, Apparatebauer und Biotechnologen. Als Fachorgan von DECHEMA, GDCh und VDI-GVC gilt sie als das unverzichtbare Forum für den Erfahrungsaustausch zwischen Forschern und Anwendern aus Industrie, Forschung und Entwicklung. Wissenschaftlicher Fortschritt und Praxisnähe: Eine Kombination, die es nur in der CIT gibt!
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