- MaxVolt Energy has introduced an IoT-enabled Smart BMS with Bluetooth connectivity for real-time lithium battery monitoring across electric mobility applications in India.
- The company partnered with IIT Roorkee to develop AI-powered algorithms for advanced SoC and SoH estimation with predictive diagnostics capabilities.
MaxVolt Energy Industries Ltd has announced the integration of an IoT-enabled Smart Battery Management System (BMS) into its lithium battery packs designed for electric mobility and energy storage applications. The newly integrated Smart BMS targets electric two-wheelers, e-rickshaws, cargo vehicles, and solar street lighting systems, enabling advanced battery monitoring and operational safety. The system combines IoT technology with Bluetooth connectivity, allowing users to access real-time information related to battery health, charging status, operating temperature, and overall battery performance through a dedicated mobile application. The development further strengthens the company’s focus on intelligent energy management solutions in India.
IoT-Enabled Smart BMS Features for Electric Mobility Applications
The Smart BMS has been developed to improve battery visibility and operational efficiency across different vehicle and energy storage segments. Through integrated Bluetooth communication and IoT connectivity, users can monitor battery parameters remotely using a mobile interface. The system is designed to provide continuous insights into battery conditions, helping operators identify performance variations and maintain battery reliability over longer operating cycles. The technology supports applications in electric two-wheelers, e-rickshaws, cargo transportation vehicles, and solar-powered infrastructure, where battery uptime and safety are considered critical for operational continuity.
AI-Based Battery Diagnostics Developed with IIT Roorkee
A major component of the Smart BMS platform is the collaboration between IIT Roorkee and MaxVolt Energy for developing AI-powered algorithms focused on accurate State of Charge (SoC) and State of Health (SoH) estimation. These algorithms are intended to enhance predictive diagnostics by identifying potential battery-related issues before failures occur. Predictive monitoring can help reduce unplanned downtime, optimize maintenance schedules, and improve long-term battery performance. The AI-based estimation system also supports improved operational planning for fleet operators and electric mobility users relying on lithium battery technologies.
Safety Protection and AIS-156 Compliance
The Smart BMS includes multiple protection mechanisms aimed at improving battery safety and reliability under demanding operating conditions. The system is equipped to protect battery packs against overcharging, overheating, and short circuits, which are among the key safety concerns associated with lithium battery systems. The battery packs have been engineered to comply with AIS-156 safety standards applicable to electric vehicle battery systems in India. Compliance with these standards is expected to support safer deployment across electric mobility platforms and improve confidence in lithium battery adoption for commercial and passenger transportation applications.
Key Features of MaxVolt Energy Smart BMS
The integrated Smart BMS combines IoT connectivity, AI-powered diagnostics, and safety-focused battery protection technologies to improve operational efficiency and battery lifespan across multiple applications.
- Real-time battery health monitoring through IoT connectivity
- Bluetooth-enabled mobile application integration
- AI-powered SoC and SoH estimation algorithms
- Predictive diagnostics for reducing downtime
- Protection against overheating, overcharging, and short circuits
- AIS-156 safety standards compliance
- Fast charging support and extended battery lifecycle
Application Areas and Operational Benefits
The Smart BMS technology is intended for deployment across multiple electric mobility and renewable energy sectors. The company stated that the battery packs are engineered to withstand extreme weather conditions commonly experienced in India. In addition to thermal durability, the systems are designed to support faster charging speeds and longer life cycles. These operational capabilities can help improve energy efficiency, reduce maintenance requirements, and support wider adoption of lithium battery solutions across electric transportation and solar infrastructure markets.
Smart BMS Features and Compliance Overview
| Category | Details |
|---|---|
| Connectivity | IoT and Bluetooth-enabled monitoring |
| AI Capabilities | SoC and SoH estimation with predictive diagnostics |
| Safety Protection | Protection against overheating, overcharging, and short circuits |
| Compliance Standard | AIS-156 safety compliance |
| Target Applications | Electric two-wheelers, e-rickshaws, cargo vehicles, solar lighting |
Frequently Asked Questions
What is the Smart BMS introduced by MaxVolt Energy?
The Smart BMS introduced by MaxVolt Energy is an IoT-enabled battery management system designed for lithium battery packs used in electric mobility and solar applications. The system integrates Bluetooth connectivity and AI-powered monitoring features to provide real-time battery insights through a mobile application. It enables tracking of battery health, charging status, and operating temperature while also supporting predictive diagnostics through advanced State of Charge and State of Health estimation algorithms developed in collaboration with IIT Roorkee.
Which applications are targeted by MaxVolt Energy’s Smart BMS?
MaxVolt Energy’s Smart BMS is designed for electric two-wheelers, e-rickshaws, cargo vehicles, and solar street lighting systems. The platform supports applications that require reliable lithium battery monitoring, improved safety, and enhanced operational efficiency. The battery packs are engineered for India’s demanding environmental conditions and support fast charging along with extended lifecycle performance. The integrated protection mechanisms against overheating, overcharging, and short circuits also help improve battery reliability across commercial and mobility-focused deployments.
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