Vanix Technologies EV Charger Deployments

Vanix Technologies EV Charger Deployments are targeted to exceed 10,000 units over the next three to five years as the Hyderabad-based company scales an adaptive charging platform built to accommodate changes in vehicle technology, grid conditions, and charging standards. The company currently has 20 paid residential charger deployments across Telangana, Uttar Pradesh, Maharashtra, Andhra Pradesh, Delhi, and Punjab. Based on its current pipeline, Vanix is targeting approximately 1,500 units in the near term, with India expected to account for most deployments before expansion into the Middle East, Southeast Asia, and other export markets.

Current Deployment Footprint and Expansion Strategy

The existing 20 chargers have completed around 600 charging sessions over roughly two months, delivering approximately 9,500 kWh across about 2,700 hours of cumulative charging time. Dr. Muddasani Satyanarayana, co-founder and CTO of Vanix Technologies, said the geographic spread is deliberate because residential charging conditions vary considerably between locations. The chargers are being used with vehicles from Tata, MG, Hyundai, Suzuki, Kia, and Mahindra. Vanix says differences in site conditions and vehicle-side behavior are contributing directly to product development as the company evaluates charging requirements across different parts of India.

Adaptive Charging for India's Diverse Grid Conditions

The company argues that charging equipment designed around fixed assumptions can face challenges across India's varied deployment environments. Grid quality, available electrical capacity, shared electrical loads, and charging behavior can differ between individual homes, apartment complexes, workplaces, and public charging locations. These differences make the ability to respond dynamically to operating conditions increasingly important. Vanix is therefore developing its platform around adaptability rather than a fixed operating model, allowing charging behavior to respond to changes in electrical availability and usage patterns while supporting a wider range of deployment environments.

Dynamic Load Balancing and Eco Charging Modes

Vanix's Dynamic Load Balancing system allows multiple chargers at a site to communicate and distribute available electrical capacity rather than drawing power independently. The company says this approach can support a larger number of chargers within existing power constraints while reducing the risk of electrical overload. Its Eco Modes are designed to consider utility peak hours, building loads, and seasonal changes in electricity demand. In a residential complex, charging can be adjusted when overall building consumption increases, allowing available electrical capacity to be used more effectively without treating each charger as an isolated electrical load.

AMD Zynq Platform Supports Adaptive Charger Architecture

At the center of the platform is an AMD Zynq adaptive SoC, selected because Vanix wanted the charger architecture to accommodate changing standards and requirements without repeatedly redesigning its controller. The company says deterministic safety and real-time control can operate in programmable logic, while communication protocols and higher-level software remain upgradeable. Its 7.4 kW, 11 kW, and 22 kW AC products use a common controller, with additional capability incorporated into the architecture for functions that could become relevant during the charger's operating life. Vanix is also developing DC charging solutions for electric two- and three-wheelers ranging from 3 kW to 15 kW.

Vehicle-to-Grid and Battery-Aware Charging Roadmap

The common-controller architecture is intended to support future capabilities including renewable-energy integration, battery-aware charging, and bidirectional charging or Vehicle-to-Grid. Renewable integration is among the nearer-term applications, with the charger able to communicate with a home's electrical metering, understand household consumption, and adjust vehicle charging according to available surplus solar power. Battery-aware charging depends on vehicle communication because today's Type 2 AC protocol does not provide the charger with the vehicle's battery state of charge. A digital communication layer could provide state-of-charge and target charging-time information for more informed charging schedules.

V2G Depends on Vehicle and Regulatory Readiness

For Vehicle-to-Grid, Vanix says its controller has been designed to support the capability when vehicle and regulatory support becomes available. In an AC V2G architecture, power conversion occurs inside the vehicle, while the charger manages communication, control, measurement, and safety through standards such as IEC 61851 and ISO 15118-20. The company identifies vehicle capability and regulation as immediate bottlenecks in India, rather than charger hardware alone. Vanix says no Indian OEM currently offers a V2G-capable onboard charger at scale, while the Central Electricity Authority is working on reverse-charging guidelines and associated tariffs.

AI and Software-Defined Charging Capabilities

Artificial intelligence remains an area under development rather than a capability Vanix describes as fully deployed. Its EVSE platform currently combines deterministic real-time control, telemetry, load management, and cloud connectivity. The company is developing an AI and analytics layer using charging, electrical, and operational data for applications including predictive maintenance, energy optimization, and intelligent load management. As vehicles become increasingly software-defined, Vanix expects charging equipment to evolve in a similar direction. The company believes future charging performance will depend increasingly on how intelligently equipment operates and how effectively it adapts throughout its operating life.

Cybersecurity and Over-the-Air Updates

Greater connectivity also increases cybersecurity requirements for charging equipment. Vanix says its approach includes secure boot, device identity, protected firmware, and trusted execution at the hardware level, supported by encrypted communication, authentication, access control, secure over-the-air updates, and continuous monitoring. OTA capability allows software and firmware to be updated after deployment, giving the company a way to introduce additional functionality as technical requirements change. This architecture is intended to reduce the need for hardware replacement when software, security requirements, or supported charging capabilities evolve after a charger has already been installed.

Policy Recommendations for Long-Term Charger Security

Satyanarayana believes policy should look beyond the number of chargers installed and place greater emphasis on interoperability, security, and adaptability. Vanix recommends digital communication that gives AC chargers access to vehicle state-of-charge information, hardware security requirements covering secure boot and signed firmware, secure OTA capability, and a minimum five-year commitment to security patches. The company's broader principle is that a charger installed in 2026 should remain secure, compliant, and adaptable in 2030 rather than requiring replacement whenever charging technology changes. This approach places lifecycle performance alongside deployment volume as a policy consideration.

Make-in-India Engineering and Flexible Manufacturing

Vanix's chargers are designed and engineered in India, with the architecture, controller, firmware, and cloud platform developed in-house in Hyderabad. Volume production is handled through Indian electronics manufacturing services partners, while the company retains design authority, bill-of-materials control, component qualification, firmware, and end-of-line testing. Instead of establishing large captive manufacturing capacity, Vanix is using a capacity-flexible model that can scale through its EMS partners. Its target customers include residential and apartment users, commercial and workplace developments, real estate companies, distribution partners, and charge point operators, with engagement also underway with CPOs and ecosystem partners for public AC charging deployments.

Scaling From Pilot Deployments to 10,000-Plus Chargers

Moving from 20 live chargers to more than 10,000 deployments represents a substantial scale-up for Vanix. The near-term target of approximately 1,500 units will provide an initial test of the company's deployment model, manufacturing capacity, and adaptive charging architecture. India is expected to remain the primary market as the company develops its broader commercial footprint. Expansion into the Middle East, Southeast Asia, and other export markets is planned alongside domestic growth. The combination of flexible manufacturing, a common controller, software upgradeability, load management, and future V2G readiness is intended to allow the platform to evolve as charging requirements develop.

Frequently Asked Questions

How many EV chargers does Vanix Technologies plan to deploy?
Vanix Technologies plans to deploy more than 10,000 EV chargers over the next three to five years, following a near-term target of approximately 1,500 units. The company currently has 20 paid residential charger deployments across six Indian states and regions, with the existing installations completing around 600 charging sessions. Its longer-term strategy focuses primarily on India while also targeting the Middle East, Southeast Asia, and other export markets. The platform is designed to support adaptive charging, dynamic load management, software updates, cybersecurity, and future charging capabilities.