从论文到网络:学生作为(生物)化学工程教育虚拟实验室的合作伙伴

IF 2.5 Q3 BIOTECHNOLOGY & APPLIED MICROBIOLOGY Frontiers in chemical engineering Pub Date : 2022-10-14 DOI:10.3389/fceng.2022.959188
Simoneta Caño de las Heras, Carina L. Gargalo, Fiammetta Caccavale, Barbara Kensington-Miller, K. Gernaey, S. Baroutian, U. Krühne
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引用次数: 1

摘要

在线平台在(生物)化学工程教育中的整合越来越成为各级教育的事实。高等教育中的虚拟实验室等例子已经表明了它们的好处,例如降低了所需的成本和资源,以及为实际实验提供了更安全的环境。然而,学生或利益相关者通常不会参与开发虚拟实验室,即使在有机会的情况下,他们可以提供有价值的改进反馈,并获得对平台的所有权。因此,当提出一个新的教育过程虚拟实验室,以向本科生教授生物过程建模为目标时,最好的方法是让学生作为其未来的用户参与开发。为此,在这项工作中,提出了四种共同参与的设计体验,展示了从纸质原型到在线教育虚拟实验室(www.biovl.com)的历程。通过调查、半结构化访谈以及学生和开发人员之间的非正式对话,在两所不同的大学收集了定性和定量数据。研究发现,学生们的观点为平台的内容、可用性和功能提供了有价值的反馈。例如,对添加生物过程相关编码活动的兴趣,或建议更改平台名称,都是收集并仔细考虑的意见。由于软件处于虚拟实验室原型的早期阶段,因此这些建议可以很容易地集成。尽管该平台的可用性和功能性正在不断提高,但这项工作的发现表明,学生们有兴趣为虚拟实验室的发展做出贡献。因此,它打开了修改和改进的大门,这些修改和改进强烈地基于用户/学生作为虚拟实验室的联合设计者的感知和观点。尽管BioVL原型的主要目标是教授生物处理建模,但一些先进的工具,如虚拟现实和增强现实(VR和AR),正在考虑在未来阶段包括在内。此外,这项工作中提出的教育策略可以被那些想要开发其他虚拟实验室的人复制。
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From Paper to web: Students as partners for virtual laboratories in (Bio)chemical engineering education
The integration of online platforms in (bio)chemical engineering education has increasingly become a matter of fact at all educational levels. Examples such as virtual laboratories in tertiary education have shown their benefits, such as the decreased cost and resources needed as well as providing a safer environment for practical experimentation. However, students or stakeholders are not usually involved in developing the virtual laboratory, even if, when given the opportunity, they can provide valuable feedback for improvement and acquire ownership over the platform. Hence, when proposing a novel educational process virtual laboratory that targets teaching bioprocess modeling to undergraduate students, the best approach is to involve the students in the development as its future users. To this end, in this work, four co-participatory design experiences are presented that show the journey from a paper prototype to an online educational virtual laboratory (www.biovl.com). Qualitative and quantitative data have been collected in two different universities through surveys, semi-structured interviews, and informal conversations among the students and the developer. The students’ perspectives were found to provide valuable feedback about the platform’s content, usability, and functionality. For example, interest in adding bioprocess-related coding activities, or suggesting to change the platform name, were opinions collected and carefully considered. These suggestions can be easily integrated since the software is at the early stages of the virtual laboratory prototype. Although the usability and functionality features of the platform are under continuous advancement, this work’s findings show that the students are interested in contributing to the virtual laboratory’s development. Therefore, it opens the door to modifications and improvements, which are strongly based on the users’/students’ perceptions and perspectives as the virtual laboratory’s co-designers. Although the primary target of the BioVL prototype is to teach bioprocessing modelling, several advanced tools such as virtual and augmented reality (VR and AR) are being considered to be included at a future stage. Furthermore, the educational strategy proposed in this work can be replicated by those who want to develop other virtual laboratories.
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来源期刊
CiteScore
3.50
自引率
0.00%
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审稿时长
13 weeks
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