Abstract
Testing and experimental processes in industries and research institutes play important roles in understanding systems and developing accurate models. Experimental uncertainties in variables introduce deviations (errors) in measured data, which can stem from various factors, one of which is the presence of outliers. Outliers impact the accuracy of measurements significantly during analysis and lead to inaccurate conclusions. Outliers can be due to environmental changes, drift in measurements, etc., during assessment. Identifying outliers and eliminating them is a crucial step during data analysis. This research aims to investigate real-time outlier detection and removal using LabVIEW. Peirce Criteria are assessed for detecting and eliminating outliers from displacement data obtained through LVDT sensors. The research demonstrates that Peirce’s criteria are particularly well suited for small datasets. By employing LabVIEW and Peirce criteria, this study presents a practical approach to accurately detect and remove outliers in real time to enhance the reliability of data analysis.
References
- Ross, Stephen M. "Peirce's criterion for the elimination of suspect experimental data." ,Journal of engineering technology, 2003, pp. 38-41.
- Lin, Lily, and Paul D. Sherman. "Cleaning data the Chauvenet way." The Proceedings of the Southeast SAS users Group, SESUG Proceedings, 2007, pp. 1-11.
- Rochim, Adian Fatchur Rochim Adian Fatchur. "Chauvenet’s Criterion, Peirce’s Criterion, and Thompson’s Criterion (Literatures Review)." ,2021.
- Limb, Braden J., Dalon G. Work, Joshua Hodson, and Barton L. Smith. "The Inefficacy of Chauvenet's Criterion for Elimination of Data Points." Journal of Fluids Engineering 139, no. 5 (2017): 054501.
- Masi, Alessandro, Alessandro Danisi, Roberto Losito, Michele Martino, and Giovanni Spiezia. "Study of magnetic interference on an LVDT: FEM modeling and experimental measurements." Journal of Sensors 2011 (2011).
- Masi, Alessandro, Alessandro Danisi, Roberto Losito, Michele Martino, and Giovanni Spiezia. "Study of magnetic interference on a LVDT prototype." In 2010 IEEE Instrumentation & Measurement Technology Conference Proceedings, pp. 219-223. IEEE, 2010.
- Ayuba, Yusuf. "Temperature control and data acquisition method for factory using LabVIEW." International Journal of Computer Engineering and Technology 7, no. 2 (2016): 01-14.
- Kalkman, Cor J. "LabVIEW: A software system for data acquisition, data analysis, and instrument control." Journal of clinical monitoring 11 (1995): 51-58.
- George, Ashline, Ashly Sunny, Jerin Cyriac, and Manu Francis. "Signal Processing in LVDT for automatic calibration." In 2016 International Conference on Electrical, Electronics, and Optimization Techniques (ICEEOT), pp. 1114-1118. IEEE, 2016.
- Niculescu, Titu, Florin Gabriel Popescu, Marius Marcu, and Ioan Răzvan Slusariuc. "Improving the quality of measurements in electrical processes using NI USB data acquisition systems." Calitatea 20, no. S1 (2019): 293.
- Hinduja, S., D. Mladenov, and M. Burdekin. "Assessment of force-induced errors in CNC turning." CIRP Annals 52, no. 1 (2003): 329-332.
- Joshi, Sarthak, and Shrikant Madhav Harle. "Linear variable differential transducer (LVDT) & its applications in civil engineering." Int. J. Transp. Eng. Technol 3, no. 4 (2017): 62.
- ElectricalWorkbook, https://electricalworkbook.com/lvdt-linear-variable-differential-transformer
- Displacementsensors, https://www.marposs.com/eng/product/lvdt-hbt-usb-and-digitized-probes
- National Instruments, https://www.ni.com/en-in/shop/model/usb-6003.html
