Comparison Test Between Amrita Virtual Lab and Real Spectrometer on Refractive Index Using Blended Laboratory

Indy Ramadhanti, Riki Purnama Putra, Shidiq Andhika, Roprop Latiefatul Millah, R. D. Agustina, M. Listiawati
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Abstract

Education in the 21st century is an era where learning is unconventional. Interactive learning in the 21st century can be done by conducting virtual or real laboratory activities, even by combining the two in one activity at once. Various innovations in virtual laboratories have spread to optical materials, especially refraction by using a virtual spectrometer. Conceptually, the refractive index is a measure of the bending ray of a light beam as it passes from one medium to another. The refractive index is given by measurement between the refractive index of air, the angle of the prism, and the angle of minimum deviation. The angle of the prism and the angle of minimum deviation can be measured with a spectrometer. The spectrometer is a scientific instrument used to separate and measure the spectral components of physical phenomena and can separate white light and measure individual narrow color bands. Other than an on-hand spectrometer, other tools that we can use to measure the angle of minimum deviation are by using a virtual spectrometer provided by several virtual labs. The study aimed to compare the result of refractive index between on on-hand spectrometer and a virtual lab. Here we report our study on spectrometer whether the virtual lab experiment yields the same results as the real lab. We compare both results of experimental data using data and graph analytics. The results of the study show that the difference in the index of refraction measured between the virtual lab and the real lab is about 0.2%. This shows that there is no significant difference between virtual lab and real lab. Keywords: amrita virtual lab, real spectrometer, refractive index, blended laboratory
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使用混合实验室进行阿姆里塔虚拟实验室与真实光谱仪在折射率方面的对比测试
21 世纪的教育是一个非常规学习的时代。21 世纪的互动学习可以通过开展虚拟或真实的实验活动来实现,甚至可以将两者同时结合在一项活动中。虚拟实验室的各种创新已扩展到光学材料领域,特别是通过使用虚拟光谱仪进行折射。从概念上讲,折射率是光束从一种介质进入另一种介质时弯曲光线的测量值。折射率是通过测量空气折射率、棱镜角度和最小偏差角得出的。棱镜角度和最小偏差角可以用光谱仪测量。光谱仪是一种科学仪器,用于分离和测量物理现象的光谱成分,可以分离白光和测量单个窄色带。除了手边的光谱仪,我们还可以使用一些虚拟实验室提供的虚拟光谱仪来测量最小偏差角。这项研究旨在比较手持光谱仪和虚拟实验室的折射率结果。在此,我们将报告我们对光谱仪的研究结果,即虚拟实验室实验是否与真实实验室得出的结果相同。我们使用数据和图表分析法比较了两种实验数据的结果。研究结果表明,虚拟实验室和真实实验室测得的折射率相差约 0.2%。这表明虚拟实验室和真实实验室之间没有明显差异。关键词:阿姆利塔虚拟实验室;真实光谱仪;折射率;混合实验室
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