How digital transformation can influence workflows, teaching practices and curricula in (bio)process science and engineering—An interview series with stakeholders

J. F. Buyel
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Abstract

A massive digital transformation is underway in biotechnology and process engineering fueled by recent advances in machine learning and so-called artificial intelligence, especially in the large language model field (e.g., ChatGPT). Training courses and curricula will need to adapt to keep pace, but the speed of progress is such that guidelines for the implementation of a digital transformation are probably already outdated. We therefore interviewed stakeholders from the fields of didactics, biotechnology and process engineering to collect the latest perspectives on the impact of digital transformation and to solicit recommendations for the adaptation of curricula and training courses to reflect new work profiles in academia and industry. We conducted semi-structured interviews with 17 stakeholders and used a framework analysis approach to structure and evaluate the collected information. For example, data handling was the dominant general activity affected by digital transformation, whereas multitasking was relevant to work, and the design and implementation of new didactic methods and content was linked to teaching. The interviews revealed that an increasingly diverse set of skills and competences (in addition to those in current curricula) will be expected from the next generation of biotechnologists and process engineers. This includes profound programming skills, model building abilities, as well critical data interpretation and data literacy in the widest sense. The corresponding key challenges will be a reasonable and structured disinvestment in other areas to provide slots for the new content and to secure resources for the implementation of necessary modifications.

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数字化转型如何影响(生物)过程科学与工程的工作流程、教学实践和课程设置--与利益相关者的系列访谈
在机器学习和所谓的人工智能领域,尤其是大型语言模型领域(如 ChatGPT)的最新进展推动下,生物技术和工艺工程领域正在进行大规模的数字化转型。培训课程和教学大纲必须与时俱进,但由于发展速度太快,实施数字化转型的指导方针很可能已经过时。因此,我们采访了来自教学、生物技术和工艺工程领域的相关人士,以收集他们对数字化转型影响的最新看法,并就如何调整课程和培训课程以反映学术界和工业界的新工作概况征求建议。我们对 17 位利益相关者进行了半结构化访谈,并采用框架分析方法对收集到的信息进行结构化分析和评估。例如,数据处理是受数字化转型影响的主要一般活动,而多任务处理与工作相关,新教学方法和内容的设计与实施与教学相关。访谈显示,人们对下一代生物技术人员和工艺工程师的技能和能力要求日益多样化(除现有课程中的技能和能力外)。这包括深厚的编程技能、建立模型的能力,以及最广泛意义上的关键数据解读和数据素养。相应的主要挑战将是合理、有序地减少对其他领域的投资,以便为新内容留出空 间,并为实施必要的修改确保资源。
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