TY - GEN
T1 - Real-Time Water Forecast and Distribution System (WAFADS) for Optimization of Water Consumption
AU - Chakravarthi, Maddikera Kalyan
AU - Al-Wahaibi, Fawziya
AU - Pranav Kumar, M.
AU - Reddy Gogulamudi, Pradeep
AU - Velusamy, Saravanan
AU - Khan Patan, Muzeeb
N1 - Publisher Copyright:
© 2026 IEEE.
PY - 2026
Y1 - 2026
N2 - The increasing demand for water resources in arid regions such as the Sultanate of Oman necessitates the development of intelligent, adaptive, and sustainable distribution systems. Traditional water networks depend on static and time-bound mechanisms that fail to accommodate dynamic consumer requirements, often resulting in inefficiency, wastage, and inequitable allocation. This paper presents the design and implementation of a Water Forecast and Distribution System (WAFADS) that integrates IoT-enabled sensors, cloud analytics, and intelligent control logic to provide demand-responsive water delivery. The system employs Raspberry Pi as a microcontroller unit interfaced with solenoid valves and flow sensors, linked through Microsoft Azure and ThingSpeak Cloud for real-time data aggregation and predictive analysis. Users can specify their water requirements in terms of both volume and timing through a web or mobile interface, enabling dynamic control and equitable distribution. The WAFADS model also incorporates AI-based forecasting and analytical tools for predicting regional water demand and optimizing supply schedules. The proposed system significantly enhances water use efficiency, reduces losses due to leakage and over-supply, and ensures user-centered service delivery. Experimental implementation of a prototype demonstrates that WAFADS achieves an overall reduction of water wastage by nearly 70% compared to traditional distribution systems, while aligning with Oman Vision 2040's goals of sustainability and smart infrastructure development.
AB - The increasing demand for water resources in arid regions such as the Sultanate of Oman necessitates the development of intelligent, adaptive, and sustainable distribution systems. Traditional water networks depend on static and time-bound mechanisms that fail to accommodate dynamic consumer requirements, often resulting in inefficiency, wastage, and inequitable allocation. This paper presents the design and implementation of a Water Forecast and Distribution System (WAFADS) that integrates IoT-enabled sensors, cloud analytics, and intelligent control logic to provide demand-responsive water delivery. The system employs Raspberry Pi as a microcontroller unit interfaced with solenoid valves and flow sensors, linked through Microsoft Azure and ThingSpeak Cloud for real-time data aggregation and predictive analysis. Users can specify their water requirements in terms of both volume and timing through a web or mobile interface, enabling dynamic control and equitable distribution. The WAFADS model also incorporates AI-based forecasting and analytical tools for predicting regional water demand and optimizing supply schedules. The proposed system significantly enhances water use efficiency, reduces losses due to leakage and over-supply, and ensures user-centered service delivery. Experimental implementation of a prototype demonstrates that WAFADS achieves an overall reduction of water wastage by nearly 70% compared to traditional distribution systems, while aligning with Oman Vision 2040's goals of sustainability and smart infrastructure development.
UR - https://www.scopus.com/pages/publications/105044127235
UR - https://www.scopus.com/pages/publications/105044127235#tab=citedBy
U2 - 10.1109/ICSEDI66420.2026.11568353
DO - 10.1109/ICSEDI66420.2026.11568353
M3 - Conference contribution
AN - SCOPUS:105044127235
T3 - 2026 International Conference on Sustainable Engineering and Digital Innovation, ICSEDI 2026
BT - 2026 International Conference on Sustainable Engineering and Digital Innovation, ICSEDI 2026
PB - Institute of Electrical and Electronics Engineers Inc.
T2 - 2026 International Conference on Sustainable Engineering and Digital Innovation, ICSEDI 2026
Y2 - 10 February 2026 through 12 February 2026
ER -