The Internet of things, mobile devices and the promising future for Science Education

E. Galembeck
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Abstract

The advancement of the new technologies of information and communication brought significant contributions to science education. Beyond, the fast pace of introduction of new technologies in research laboratories creates the need for their timely introduction in classrooms. Unfortunately, in most cases there is a large time gap between the widespread adoption of new research technologies and their availability to students in regular courses. A remarkable case was the dissemination of personal computers that brought many benefits to science education. Computers have made information from diverse and far away sources promptly available to students and lecturers, in the classroom, teaching labs and home. Some examples of the benefits brought by personal computers to science education are the possibility of interaction with models and their development, the capacity of data storage, treatment, exchange and visualization as well as the possibility of simulation of complex systems. The capacity of having things (instruments, equipment, sensors, actuators) connected to the internet opened a unique perspective for science education that is the possibility of massively teaching science by doing science. Experiments can be planned and data can be collected and interpreted remotely, using personal devices and equipment that can be made available to students for remote operation, from their schools. This talk will presents examples and possibilities of science teaching by doing science mediated by the internet of things: interdisciplinary activities were developed for primary school students, allowing them to observe samples collected by themselves or made available by their teachers, using remote microscopes. The students are thus prompted to go deeper into the study subject, discussing their results in a broader context. This setup also allows students to manipulate variables in a controllable environment and to collect data from remote sensors, doing sophisticated analyses of their samples.
物联网、移动设备与科学教育的美好未来
信息通信新技术的发展为科学教育带来了重大贡献。此外,研究实验室引进新技术的速度很快,因此需要及时将其引入课堂。不幸的是,在大多数情况下,在广泛采用新的研究技术和在常规课程中向学生提供这些技术之间存在很大的时间差距。个人电脑的普及给科学教育带来了许多好处,这就是一个显著的例子。计算机使学生和教师可以在教室、教学实验室和家中迅速获得来自不同和遥远来源的信息。个人计算机给科学教育带来好处的一些例子是与模型及其开发交互的可能性,数据存储、处理、交换和可视化的能力以及模拟复杂系统的可能性。物(仪器、设备、传感器、执行器)连接到互联网的能力为科学教育开辟了一个独特的视角,即通过科学实践大规模教授科学的可能性。实验可以计划,数据可以收集和远程解释,使用个人设备和设备,学生可以从他们的学校远程操作。本次演讲将展示通过物联网媒介进行科学教学的例子和可能性:为小学生开发的跨学科活动,允许他们使用远程显微镜观察自己收集或老师提供的样本。因此,学生们被鼓励深入研究课题,在更广泛的背景下讨论他们的结果。这种设置还允许学生在可控的环境中操纵变量,并从远程传感器收集数据,对样本进行复杂的分析。
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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