Smart energy is intelligent energy resource management using IoT to improve efficiency, reduce costs, and automate processes. ThingsBoard is a perfect platform for these tasks, providing scalable data collection, analytics, and real-time remote control.
IoT is radically transforming the approach to energy management. IoT sensors capture the consumption of electricity, water, heat, as well as environmental parameters such as pressure, temperature, and more. This data is used to make automated decisions — from shutting down systems in case of failures to optimizing consumption and preventing losses.
The ThingsBoard platform provides a powerful technology stack for building such systems. It supports data collection from various types of devices and protocols (MQTT, CoAP, HTTP, etc.), dashboard visualizations, and advanced automation through its rule engine and alerting system. This enables real-time energy monitoring and rapid response to anomalies, reducing costs and improving operational efficiency.
ThingsBoard offers a comprehensive IoT-based energy monitoring solution built on a modular, scalable architecture. At the device level, smart meters and industrial Modbus meters collect real-time data on energy consumption across facilities.
These devices connect through IoT gateways that support a wide range of communication protocols, including MQTT, CoAP, HTTP, and LwM2M, ensuring secure and seamless data transmission to the cloud.
ThingsBoard core handles device and user management, real-time data processing via a powerful rule engine. The collected data is visualized through intuitive dashboards and mobile applications, giving users clear insights into energy usage, system alarms, and performance metrics — all in real time, from a single interface.
The smart energy solution provides a wide range of benefits for businesses, facility managers, and technical teams, enabling efficient, automated, and scalable energy management.
Real-time monitoring detects unusual patterns that may signal potential system failures, helping reduce risks and prevent downtime.
IoT-powered energy systems automatically adjust consumption based on time of day, weather, or pricing factors, improving efficiency and occupant comfort.
A unified platform enables centralized oversight of energy usage across multiple facilities, simplifying management and enhancing visibility.
IoT sensors track detailed consumption patterns by device or system, allowing identification of inefficiencies and driving smarter energy use.
Continuous monitoring and automation help reduce operational costs and maintenance needs, supporting long-term sustainability goals.
Automated tracking and reporting features make it easier to meet energy regulations and environmental standards.
The live dashboard displays real-time data from several smart meters collected using ThingsBoard MQTT API. Collected data is processed via the rule engine to raise alarms on certain thresholds. The main dashboard displays the energy meters, corresponding alarms, and real-time data feeds. Click on the alarm or energy meter row to open the meter details. You may export the dashboard from our live demo server and import it to your ThingsBoard instance.
This unified dashboard provides a comprehensive real-time view of voltage, amperage, frequency, and energy consumption across all three floors. Operators can monitor Smart Meters A, B, and C, analyze, compare performance, and detect anomalies instantly. Alarm widgets notify users about critical events like low or high voltage, while interactive charts and tables offer full control and insight — all from a single interface.
This dashboard provides full visibility into voltage, frequency, amperage, and energy consumption for Smart Meter A. Real-time charts help detect instability in power supply, while a historical consumption graph supports weekly analysis. The frequency dip and critical high-voltage alarm enable timely diagnostics and response.
This dashboard provides full visibility into voltage, frequency, amperage, and energy consumption for Smart Meter B. Real-time charts help detect instability in power supply, while a historical consumption graph supports weekly analysis. The frequency dip and critical high-voltage alarm enable timely diagnostics and response.
This dashboard provides full visibility into voltage, frequency, amperage, and energy consumption for Smart Meter C. Real-time charts help detect instability in power supply, while a historical consumption graph supports weekly analysis. The frequency dip and critical high-voltage alarm enable timely diagnostics and response.
With a single click on the theme icon in the top right corner, users can switch between light and dark modes. This flexibility enhances user comfort in various lighting conditions, improves focus, and reduces eye strain — especially during night shifts or long monitoring sessions. The dark theme preserves full dashboard functionality, including charts, alerts, and controls.
This unified dashboard provides a comprehensive real-time view of voltage, amperage, frequency, and energy consumption across all three floors. Operators can monitor Smart Meters A, B, and C, analyze, compare performance, and detect anomalies instantly. Alarm widgets notify users about critical events like low or high voltage, while interactive charts and tables offer full control and insight — all from a single interface.
This dashboard provides full visibility into voltage, frequency, amperage, and energy consumption for Smart Meter A. Real-time charts help detect instability in power supply, while a historical consumption graph supports weekly analysis. The frequency dip and critical high-voltage alarm enable timely diagnostics and response.
This dashboard provides full visibility into voltage, frequency, amperage, and energy consumption for Smart Meter B. Real-time charts help detect instability in power supply, while a historical consumption graph supports weekly analysis. The frequency dip and critical high-voltage alarm enable timely diagnostics and response.
This dashboard provides full visibility into voltage, frequency, amperage, and energy consumption for Smart Meter C. Real-time charts help detect instability in power supply, while a historical consumption graph supports weekly analysis. The frequency dip and critical high-voltage alarm enable timely diagnostics and response.
With a single click on the theme icon in the top right corner, users can switch between light and dark modes. This flexibility enhances user comfort in various lighting conditions, improves focus, and reduces eye strain — especially during night shifts or long monitoring sessions. The dark theme preserves full dashboard functionality, including charts, alerts, and controls.
A scalable IoT-based energy monitoring and management system can be adapted for a wide range of industries and infrastructure types. Below are just a few examples of where smart energy solutions can be applied.
Tracking energy usage of heavy machinery, identifying inefficiencies, and improving power distribution for safer and more cost-effective production processes.
Controlling power consumption in classrooms, labs, and dormitories, scheduling energy use based on occupancy, and ensuring sustainability targets are met.
Monitoring energy usage across multiple locations, managing peak hours, and controlling lighting and HVAC systems automatically for higher efficiency.
Optimizing HVAC, lighting, and equipment usage across floors and departments, with real-time monitoring to reduce energy waste and operational costs.
Maintaining stable voltage, temperature, and load balancing to ensure uninterrupted operations while reducing electricity consumption and cooling costs.
Tracking energy usage of heavy machinery, identifying inefficiencies, and improving power distribution for safer and more cost-effective production processes.
Optimizing HVAC, lighting, and equipment usage across floors and departments, with real-time monitoring to reduce energy waste and operational costs.
Controlling power consumption in classrooms, labs, and dormitories, scheduling energy use based on occupancy, and ensuring sustainability targets are met.
Maintaining stable voltage, temperature, and load balancing to ensure uninterrupted operations while reducing electricity consumption and cooling costs.
Monitoring energy usage across multiple locations, managing peak hours, and controlling lighting and HVAC systems automatically for higher efficiency.
