IoT Implementation in Remote Measuring Laboratory VMLab Analyses

Abstract

The paper presents analyses of the implementation of IoT in the patent technology of the remote measuring laboratory (VMLab). The technology allows to create a new electrical connection between different devices, where the connection diagram was not defined before. This may be done remotely around the world. To begin with, an application of this technology as a remote measuring laboratory is presented and described. Analyses of the possible application of IoT technology in the Remote Measurement Laboratory (VMLAB) with a final design are also presented. The research focuses on an efficient way to retrieve measured values synchronized over the Internet from multiple measuring devices and controllable devices, without an Ethernet or Wi-Fi interface from the manufacturer. The analyses may also be useful when implementing an additional IoT approach to existing systems.

Remote IoT Education Laboratory for Microcontrollers Based on the STM32 Chips

“…The practical form of teaching is the most effective one as students can understand things correctly. Therefore, the goal of teachers is to create tools for practical teaching, whether in full-time teaching or online teaching by the virtual laboratories (VLs), which is confirmed by [19][20][21][22][23][24][25][26][27][28][29][30][31][32][33]. The publication [20] focused on mechanical engineering in India states that students can only understand the curriculum well if they experiment in the laboratory.…”

Electrical Energy Savings by Utilizing Internet-Based Automatic Monitoring and Control of Things

“…This research aims to design, manufacture, control, and evaluate a prototype that can make a system able to control electrical loads and can monitor in real time [4] and can even be controlled remotely using the internet. [5]The method used is through the Analysis, Design, Development, Implementation, Evaluation (ADDIE) approach, namely by studying the literature [6] to analyze the research object, then design and develop the design results and implement the design results and then implement them on the research object [7][8], all suggestions for improvement are used as an evaluation for improving this system [9]. The novelty of this research is to help users control and monitor electrical loads in real time and without the need to use applications or software that must be downloaded first [10], users only need to Entering the AdaFruit website is of course much easier and more flexible in use [11], unlike in previous studies that have been carried out, users must first download a software or application and this system is also equipped with the use of sensors so that this system can work with more ef isien [12].…”

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“…[27]. Metode yang digunakan melalui pendekatan analysis, design, development, implementation, evaluation (ADDIE) yaitu dengan mempelajari literatur [28] untuk menganalisis objek penelitian, kemudian merancang dan mengembangkan hasil desain dan mengimplementasikan hasil desain dan kemudian mengimplementasikannya pada objek penelitian, semua saran perbaikan digunakan sebagai evaluasi untuk perbaikan sistem ini [29], [30]. Kebaruan dari penelitian ini adalah membantu pengguna dapat mengontrol dan melakukan monitoring bebanbeban listrik secara real time serta tanpa perlu menggunakan aplikasi atau software yang harus diunduh terlebih dahulu [31], pengguna hanya perlu masuk ke website AdaFruit hal ini tentu jauh lebih mudah dan fleksibel dalam penggunaannya [1], tidak seperti dalam penelitian-penelitian sebelumnya yang sudah dilakukan pengguna harus mengunduh sebuah software atau aplikasi terlebih dahulu serta sistem ini juga dilengkapi dengan penggunaan sensor-sensor agar sistem ini dapat bekerja dengan lebih efisien [32].…”