Smart Water founder engineered a new approach to water monitoring by combining low power sensors with cloud analytics. This vision transformed how municipalities and facilities detect leaks, reduce waste, and manage compliance.
The company emerged from years of research in acoustic detection and machine learning, positioning itself as a practical solution for aging infrastructure and tightening regulations.
| Founder | Role | Key Contribution | Impact |
|---|---|---|---|
| John Kriesel | Co-founder and CEO | Defined product strategy and customer partnerships | Scaled deployments across multiple utility sectors |
| Tammy Wang | Co-founder and CTO | Led sensor hardware and analytics development | Delivered leak detection accuracy and low power performance |
| Robert Silva | Head of Engineering | Managed firmware, cloud platform, and integrations | Enabled reliable data pipelines and regulatory compliance tools |
| Diana Lopez | Director of Utilities Partnerships | Built pilot programs and contract negotiations | Accelerated adoption in municipal and industrial segments |
Technology Behind Smart Water Sensors
The core technology combines acoustic sensing, pressure analytics, and adaptive machine learning models. Devices are designed to operate for years on battery while streaming data for real time insight.
Edge processing reduces false alarms, and encrypted communication ensures that sensitive operational data remains secure across varied network environments.
Market Adoption and Use Cases
Early adoption focused on municipalities seeking non revenue water reduction, but the platform now serves industrial, commercial, and multi family segments. Integration with existing SCADA and asset management workflows lowers deployment friction.
Customers report measurable improvements in leak response time, regulatory reporting accuracy, and operational cost savings across diverse sites.
Product Roadmap and Innovation
The roadmap emphasizes expanded valve monitoring, advanced pressure management, and integration with water quality sensors. Continuous improvements aim to simplify installation and support modular expansions without replacing existing infrastructure.
Ongoing collaboration with utilities ensures that new capabilities align with evolving operational standards and compliance requirements.
Implementation and Best Practices
- Define clear objectives around non revenue water reduction and compliance reporting.
- Start with a focused pilot in high risk zones to validate detection accuracy.
- Map existing assets and integration points to streamline deployment and reduce disruption.
- Train operations teams on analytics dashboards and response workflows.
- Monitor performance metrics and iterate on threshold settings for continuous improvement.
FAQ
Reader questions
How does the system detect leaks in different pipe materials?
The platform uses material specific acoustic signatures and pressure decay patterns, allowing it to distinguish true leaks from transient events in steel, PVC, and cast iron networks.
What are the typical installation requirements for existing infrastructure?
Installation often requires only minimal tapping points and power or battery configuration, with no major retrofitting or downtime for most standard line sizes.
Can the platform integrate with legacy SCADA and CMMS systems?
Built in adapters support standard protocols and APIs, enabling seamless data exchange with existing SCADA, work order, and asset management tools.
What security measures protect data and device integrity?
End to end encryption, secure boot, and role based access controls ensure that data remains trustworthy and devices resist tampering or unauthorized changes.