Real-Time Analysis of E-Waste Monitoring Using Data Visualization in Power BI

Year : 2025 | Volume : 16 | Issue : 02 | Page : 1 7
    By

    Prabhakar D,

  • Chitra P,

  • Harshitha K.V,

  • Sahana H.,

  • Varshini S.,

  1. Professor, Department of Computer Science and Engineering Karpagam College of Engineering Coimbatore, Tamil Nadu, India
  2. Student, Department of Computer Science and Engineering Karpagam College of Engineering, Coimbatore, Tamil Nadu, India
  3. Student, Department of Computer Science and Engineering Karpagam College of Engineering, Coimbatore, Tamil Nadu, India
  4. Student, Department of Computer Science and Engineering Karpagam College of Engineering, Coimbatore, Tamil Nadu, India
  5. Student, Department of Computer Science and Engineering Karpagam College of Engineering, Coimbatore, Tamil Nadu, India

Abstract

The exponential growth of electronic waste (e-waste) in India poses significant environmental and public health challenges, necessitating robust monitoring, management, and disposal strategies. This project, Real-time analysis of e-waste generated across different countries in the world and also survey report of India, seeks to provide a comprehensive assessment of e-waste production patterns, utilizing real-time data to capture dynamic shifts in waste generation and collection. By leveraging Power BI for advanced data visualization, this study pinpoints regions with the highest levels of e-waste, uncovering underlying factors such as population density, urbanization, economic activity, and industrialization that contribute to these disparities. The project incorporates a diverse range of data sources, including governmental reports, environmental agency databases, ensuring data accuracy and relevance. This integration of real-time data allows policymakers and environmental organizations to detect emerging trends and respond in time to mitigate the risks of environmental and health impacts. Interactive Power BI dashboards facilitate continuous monitoring and forecasting, arming decision- makers with tools for proactive waste management. The visualizations make granular details about waste generation by category easily accessible and point out areas that need immediate intervention. Additionally, the project explores country-wise comparisons of waste recycling rates and disposal practices, spotlighting areas where sustainable improvements can be prioritized. Ultimately, this analysis serves as a critical resource for developing sustainable policies and fostering responsible e- waste disposal practices. By providing actionable insights, it lays the groundwork for a more environmentally conscious digital landscape in India, aligning with global sustainability goals and encouraging public awareness around e-waste issues.

Keywords: E-waste, data visualization, Power BI, insights, analysis, Pandas, Numpy

[This article belongs to Journal of Remote Sensing & GIS ]

How to cite this article:
Prabhakar D, Chitra P, Harshitha K.V, Sahana H., Varshini S.. Real-Time Analysis of E-Waste Monitoring Using Data Visualization in Power BI. Journal of Remote Sensing & GIS. 2025; 16(02):1-7.
How to cite this URL:
Prabhakar D, Chitra P, Harshitha K.V, Sahana H., Varshini S.. Real-Time Analysis of E-Waste Monitoring Using Data Visualization in Power BI. Journal of Remote Sensing & GIS. 2025; 16(02):1-7. Available from: https://journals.stmjournals.com/jorsg/article=2025/view=223049


References

  1.  Li J, Shrivastava P, Gao Z, Zhang HC. Printed circuit board recycling: a state-of-the-art survey. IEEE Transactions on Electronics Packaging Manufacturing. 2004 Jan 31; 27(1): 33–42.
  2.  Meskers CE, Hagelüken C, Van Damme G. Green recycling of EEE: Special and precious metal recovery from EEE. In Proceedings of Extraction & Processing Division (EPD) Congress at the Minerals, Metals & Materials Society (TMS) Annual Meeting & Exhibition. In: Howard SM, editor. San Francisco, California, USA. 2009 Feb 15–19. p 1131.
  3.  Khan AU, Ahmad RW. A blockchain-based IoT-enabled E-waste tracking and tracing system for smart cities. IEEE Access. 2022 Aug 16; 10: 86256–69.
  4.  Pont A, Robles A, Gil JA. e-WASTE: everything an ICT scientist and developer should know. IEEE Access. 2019 Nov 21; 7: 169614–35.
  5. Baldé CP, Forti V, Gray V, Kuehr R, Stegmann P. The global e-waste monitor 2017: Quantities, flows and resources. United Nations University, international telecommunication union, and international solid waste association; 2017.
  6.  Marke A, Chan C, Taskin G, Hacking T. Reducing e-waste in China’s mobile electronics industry: the application of the innovative circular business models. Asian Educ Dev Stud. 2020 Jul 10; 9(4): 591–610.
  7.  Sohaili J, Muniyandi SK, Mohamad SS. A review on printed circuit board recycling technology. J Emerg Trends Eng Appl Sci. 2012 Jan 1;3(1):12–8.
  8.  Abdelbasir SM, Hassan SS, Kamel AH, El-Nasr RS. Status of electronic waste recycling techniques: a review. Environ Sci Pollut Res. 2018 Jun; 25: 16533–47.
  9. Ribeiro PP, Dos Santos ID, Dutra AJ. Copper and metals concentration from printed circuit boards using a zig-zag classifier. J Mater Res Technol. 2019 Jan 1; 8(1): 513–20.
  10. Wang H, Zhang S, Li B, Pan DA, Wu Y, Zuo T. Recovery of waste printed circuit boards through pyrometallurgical processing: A review. Resour Conserv Recycl. 2017 Nov 1; 126: 209–18.
  11. Bizzo WA, Figueiredo RA, De Andrade VF. Characterization of printed circuit boards for metal and energy recovery after milling and mechanical separation. Materials. 2014 Jun 16; 7(6): 4555–66.
  12.  Gupta S, Modi G, Saini R, Agarwala V. A review on various electronic waste recycling techniques and hazards due to its improper handling. International Refereed Journal of Engineering and Science (IRJES). 2014 May; 3(5): 05–17.
  13.  Eranna G. Crystal Growth and Evaluation of Silicon for VLSI and ULSI. Boca Raton, FL, USA: CRC Press; 2015.
  14.  Bidini G, Fanto i F, Bartocci P, ‘Alessandro B, ‘Amico M, Laranci P, Sco a E, Zagaroli M. Recovery of precious metals from scrap printed circuit boards through pyrolysis. J Anal Appl Pyrolysis. 2015 Jan 1; 111: 140–7.
  15. Pérsico DF, Melody BJ, Kinard T, Mann L, Beeson JJ, Nance J. The use of niobium in capacitor applications. In Proc Int Symp Niobium, Sci Technol. 2001 Dec; 323–336.
  16.  Dang ZM, Zheng MS, Zha JW. Ferroelectric polymer materials for electric energy storage. Ferr Mater Energ Appl. 2018 Aug 31; 8: 169–202.
  17. Sakabe Y, Minai K, Wakino K. High-dielectric constant ceramics for base metal monolithic capacitors. Jpn J Appl Phys. 1981; 20(S4): 147.
  18.  Diblik S, Zednicek T. New technologies on tantalum and niobium oxide capacitors for space- limited designs. In 2006 IEEE 1st Electronic System integration Technology Conference. 2006 Sep 5; 2: 805–811.
  19. S amałek K, Galos K. Metals in Spent Mobile Phones (SMP)–a new challenge for mineral resources management. Gospod Surowcami Miner: Miner Resour Manag. 2016; 32(4): 45–58.

Regular Issue Subscription Review Article
Volume 16
Issue 02
Received 25/03/2025
Accepted 15/04/2025
Published 10/07/2025
Publication Time 107 Days


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