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An Approach to Demand Pattern Estimation: Monte Carlo Simulation and Fractal Analysis.
Understanding urban water demand is crucial for reliable supply. This study estimates hourly water consumption patterns using Monte Carlo simulation, revealing persistent demand behaviors and a peak flow factor of 5.
Area of Science:
- Environmental Engineering
- Urban Water Management
- Hydrology
Background:
- Urban water supply systems significantly impact daily life.
- Water demand patterns are influenced by societal factors like working hours and living standards.
- Accurate demand forecasting is essential for water supply agencies to ensure reliability.
Purpose of the Study:
- To estimate short-term (hourly and daily) water demand for urban populations.
- To derive a time series distribution of water consumption for various household activities.
- To provide a basis for designing water infrastructure and assessing system performance.
Main Methods:
- Utilized the Bureau of Indian Standards (BIS) standard of 135 lpcd (liters per capita per day).
- Incorporated socioeconomic survey data to inform water consumption patterns.
- Employed Monte Carlo simulation (MCS) to generate random distributions of water consumption.
Main Results:
- Hourly water consumption exhibited persistent behavior, indicated by Hurst coefficients between 0.592 and 0.837.
- The estimated demand pattern showed a peak flow factor of 5.
- Developed a time series distribution of water consumption for different activities.
Conclusions:
- The derived hourly water demand patterns are valuable for designing service reservoirs and optimizing pump scheduling.
- The findings are important for performance assessment studies of water distribution systems (WDS).
- Accurate demand pattern analysis enhances the efficiency and reliability of urban water supply.
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