The present disclosure provides a distributed multi-utility
monitoring system and method for optimizing at least two distinct utility subsystems. The
system comprises a plurality of sensor nodes configured to acquire physical operational parameters, a communication gateway, and an
edge computing device for validation, normalization, and synchronization of heterogeneous datasets. A centralized analytics
server performs cross-domain
correlation analysis to generate predictive mitigation outputs. The
system integrates
electricity, water, and gas
distribution networks, monitoring gas-specific parameters such as press we, flow rates, and leak indicators. A fraud, waste, and abuse (FWA) detection module identifies anomalous consumption patterns indicative of tampering or unauthorized usage. Temperature-controlled asset monitoring ensures
cold chain integrity with predictive failure alerts and regulatory compliance
logging. A central
machine learning engine drives predictive optimization and data-driven decision-making, while a reporting interface surfaces actionable insights and recommendations to operators. By utilizing a distributed architecture from edge to centre, the
system enables technical correlation between disparate utility infrastructures to enhance operational efficiency,
sustainability, fraud prevention, and proactive
infrastructure management across multiple domains.