India’s public EV charging landscape is changing at freeway speed. In 2025, policy nudges, highway electrification, and oil-marketing company (OMC) rollouts are pushing DC fast charging from “nice to have” to “expected.” Yet, AC charging still anchors workplaces, homes, and destination sites. So, is fast charging the new norm? The short answer is, it’s quickly becoming the norm for public ev charging, while AC remains foundational for private and long-dwell use cases.

What’s Driving India’s Fast-Charging Surge?

The Indian EV charging ecosystem is undergoing rapid transformation, fueled by strong policy support and strategic investments. The central government has earmarked $230 million to accelerate the rollout of fast-charging stations, providing a crucial push to both automakers and charge-point operators. This wave of incentives has created fertile ground for network expansion, especially as the focus shifts from small-scale pilots to nationwide infrastructure capable of supporting mass adoption.

At the same time, network effects are kicking in as state-owned oil marketing companies (IOCL, BPCL, HPCL) and leading auto OEMs collaborate to build one of the country’s largest public charging networks. By strategically deploying rapid chargers at existing fuel stations and along highways, they’re creating convenient touchpoints for drivers. Meanwhile, the rise in EV adoption beyond two-wheelers, particularly four-wheelers and commercial fleets, has intensified the need for faster charging solutions. Fleet uptime, intercity travel, and ride-hailing all demand higher power levels, typically 60–120 kW or more, making DC fast-charging sites the natural choice for public use.

The Public Charging Base in 2025: Diving into Numbers

As of April 2025, India stands at over 17,800 public ev charging stations, according to data from the Bureau of Energy Efficiency (BEE). Growth is particularly strong along national highways and in leading EV states, where demand for reliable, high-speed charging is accelerating.
Automakers are playing a pivotal role in this expansion. Tata Motors has announced plans to set up 30,000 public charging points and 500 large-scale “mega-charger” hubs by 2027. Meanwhile, Maruti Suzuki and Hyundai are also ramping up investments in public fast-charging infrastructure through strategic partnerships, highlighting the industry’s clear shift toward higher-power, future-ready networks.

What Makes Fast Charging Perfect for Public Use

• Highways & transit hubs: Travelers want <60-minute top-ups; DC wins on dwell-time economics.
• Urban forecourts & malls: Turnover matters. Higher kW squeezes more sessions per day, improving site ROI.
• Fleets & logistics: Uptime is revenue. DC and smart scheduling keep vehicles in service longer.

On the other hand, AC charging continues to dominate in residential complexes, office spaces, and other long-dwell locations where vehicles remain parked for extended hours. In such cases, the lower upfront cost of AC hardware makes it a more practical and TCO-friendly choice. What’s emerging, therefore, is a hybrid charging landscape, fast DC chargers driving public and high-throughput use, while AC solutions remain the preferred option for private, overnight, and cost-sensitive charging needs.

Why Site Hosts Are Shifting Towards More DC Chargers

• Higher utilization potential: Faster sessions enable more vehicles served per day, especially at high-traffic forecourts.
• Bundled services & retail uplift: Co-located convenience retail, F&B, or fleet yards benefit from 20–40 minute dwell times.
• Policy-linked capex support: Incentives for fast chargers improve the payback math in early-stage markets.

That said, many operators still deploy mixed sites: a few DC guns for throughput plus multiple AC points for price-sensitive or long-stay users, spreading capex and capturing broader demand.

Tech Trends Making Fast Charging the “New Norm”

1. Higher-power modules (60–240 kW and above) with smart load sharing to right-size power per vehicle.
2. OCPP-based interoperability for cross-network roaming and centralized operations.
3. Solar and BESS coupling to shave demand peaks, cut energy costs, and keep fast chargers resilient during grid events, an approach proven in Servotech’s solar-powered carport pilot.
4. Predictive maintenance & analytics to boost uptime and reduce truck rolls across distributed portfolios.

Highways, Tier-2/3 Cities, and the “Every 50–70 km” Rule of Thumb

As national corridors densify, DC hubs spaced every 50–70 km are becoming common practice among operators, with OMC forecourts as anchor locations. While metro clusters still hold the lion’s share, Tier-2/3 cities are now in scope as intercity travel and regional commerce electrify.

Two-Wheeler & Three-Wheeler Reality Check

India’s EV base is still dominated by two- and three-wheelers, many of which rely on home/work AC charging or swap ecosystems. Public DC is less critical for them day-to-day, but mixed-use forecourts and urban hubs are adding lower-power DC and fast AC to support quick top-ups for e-commerce and delivery fleets, further normalizing “faster than AC wallbox” public experiences.

Will Fast Chargers Fully Replace AC Public Chargers?

Fast chargers won’t completely replace AC chargers because the use case defines the fit. In 2025, DC dominates highways, fleet yards, forecourts, and premium hubs where speed and uptime are critical, while AC remains the smarter choice for workplaces, apartments, hotels, and other long-dwell sites where vehicles sit for hours and lower hardware costs improve total cost of ownership. The most resilient public charging model is therefore complementary: high-power DC for throughput, paired with AC for widespread coverage and affordability.

How Businesses Can Future-Proof Their Rollouts

1. Plan hybrid sites (DC and AC) to match diverse dwell times.
2. Design for solar and storage where feasible to hedge tariffs and enhance reliability.
3. Standardize on CCS2 for four-wheelers while maintaining backward compatibility for legacy fleets.
4. Prioritize uptime with OCPP platforms, proactive maintenance, and strong SLAs.
5. Leverage incentives and OMC partnerships to accelerate scale.

Where Servotech Fits in Your 2025 Plan

If you’re planning public hubs, highway forecourts, or mixed-use depots, Servotech offers:

• Proven DC deployments (60/120 kW), including large OMC rollouts.
• Set up Delhi’s first grid-connected solar-powered EV charging carport.
• Local co-development of charger components with Watt & Well (France) to strengthen Make-in-India supply chains.
• Interoperability R&D to bridge standards during India’s transition to faster protocols.

Conclusion

In 2025, fast charging is becoming the new norm for public EV infrastructure in India, powered by incentives, OMC forecourts, and OEM participation. AC remains essential for homes, workplaces, and long-dwell destinations, but when drivers pull into a public site, they increasingly expect DC speeds.
For charge-point investors, retailers, fleet operators, and municipalities, the winning strategy is hybrid: deploy DC where time is money and AC where cost and dwell align, and integrate solar and storage to future-proof operations. With a growing portfolio of DC fast chargers, solar-integrated pilots, and Make-in-India engineering, Servotech is well placed to help operators build that future faster.

Switching to an electric vehicle (EV) is an excellent way to cut emissions and fuel costs. But pairing it with solar power takes sustainability and savings to the next level. One of the most common questions EV owners ask is: “How many solar panels do I need to charge my car from home?” The answer depends on several factors, like your EV’s battery size, daily driving habits, solar panel capacity, and local sunlight availability.
In this blog, we’ll break down the calculation, key considerations, and real-world examples to help you understand how solar and EV charging fit together.

Understanding EV Energy Needs

Before calculating solar requirements, let’s look at your car’s consumption.

Battery size and range

EVs come with different battery capacities, usually measured in kilowatt-hours (kWh). For example:

• Tata Nexon EV: ~40 kWh battery, ~300–350 km range.
• MG ZS EV: ~50 kWh battery, ~400–450 km range.
• Hyundai Ioniq 5: ~72.6 kWh battery, ~600 km range.

Daily driving habits

The average Indian driver covers 30–50 km per day. Most EVs consume about 0.15–0.20 kWh per km, so a daily commute might require only 5–10 kWh of charging, far less than a full battery.

How Solar Panels Generate Energy

Solar panel output is measured in watts (W). The most common residential panels today are rated 400–550 W. The actual energy produced depends on the number of sunlight hours and the location.

For example, in India, most regions receive 4–6 peak sun hours per day. A 500W panel can therefore generate:

500 W × 5 hours = 2.5 kWh per day(approx

This concludes how a single solar panel can roughly power 10–15 km of EV driving daily.

Calculating Solar Panels for EV Charging

To estimate how many solar panels you’d need, let’s break it down with simple math. If you drive about 40 km daily and your EV consumes 0.18 kWh per km, that’s roughly 7.2 kWh per day. A 500 W solar panel in India generates around 2.5 kWh daily (assuming 5 peak sun hours). Dividing your energy needs (7.2) by solar output (2.5) shows you’d need at least three 500 W panels to cover your daily driving.

However, if your goal is to fully charge a 40 kWh EV battery purely with solar, you’d require around 16 such panels, something more feasible for larger homes with adequate rooftop space or those aiming for complete energy independence.

Key Factors That Affect Panel Requirements

1. Sunlight availability

Regions like Rajasthan or Gujarat, with over 6 sun hours daily, will need fewer panels compared to Delhi or Bengaluru with almost 4–5 hours.

2. Panel efficiency

Modern monocrystalline panels are more efficient than polycrystalline ones, meaning you’ll need fewer panels to produce the same energy.

3. Type of charger

• AC home charger (3.3 kW to 7.4 kW): Works well with rooftop solar for daily charging.
• DC fast charger (15–30 kW & above): Requires grid support, but solar can offset energy usage.

Your EV’s charger compatibility is one of the most important factors that you must consider while choosing an EV.

4. Battery size and driving patterns

A smaller commuter EV will need fewer panels, while a premium SUV with a large battery and longer daily drives will need significantly more.

Real-World Examples

Case 1: City commuter

• EV Model: Tata Nexon EV (40 kWh)
• Daily drive: 35 km (~6.5 kWh/day)
• Solar need: 3 × 500 W panels

Case 2: Long-range user

• EV Model: Hyundai Ioniq 5 (72.6 kWh)
• Daily drive: 80 km (~14 kWh/day)
• Solar need: 6 × 500 W panels

Case 3: Full battery solar charging

• EV Model: MG ZS EV (50 kWh battery)
• Requirement: ~20 × 500 W panels for complete off-grid charging

Benefits of Solar EV Charging at Home

1) Cost savings

Switching to solar for EV charging can slash your charging expenses by 70–80% compared to grid electricity and drastically more when compared to petrol or diesel. Over the lifetime of your EV, this translates into significant financial savings, making the upfront investment in solar panels and a charger extremely cost-effective.

2) Energy independence

By installing solar panels with a home EV charger, you gain the freedom to power your vehicle without relying solely on the grid. This shields you from unpredictable power outages, rising tariffs, and peak-hour electricity rates. Pairing solar with a battery storage system further strengthens independence, ensuring your car is ready to drive anytime, day or night.

3) Sustainability

Every kilometer driven on solar energy helps reduce greenhouse gas emissions and cuts dependence on fossil fuels. This isn’t just a personal benefit, it’s a contribution to India’s larger clean energy and EV adoption mission. With millions making the shift, solar-powered EVs can collectively transform urban air quality and accelerate the journey to a net-zero future.

Can You Use Battery Storage to Charge Your EV?

Pairing solar with a home energy storage system (lithium batteries) allows you to store excess solar power during the day and use it later to charge your EV, even at night. This makes solar-powered EV charging far more flexible, especially if your driving schedule requires evening or early-morning charging when the sun isn’t available.

Beyond homes, battery energy storage systems (BESS) are increasingly becoming a backbone of clean energy infrastructure. Servotech’s advanced BESS technology, already deployed across industries and integrated into hybrid EV charging stations, demonstrates how storage ensures reliability, reduces grid dependence, and maximizes solar utilization. At the household level, this means you’re not just charging your EV, but also building a mini renewable ecosystem that can handle peak-hour demands, provide backup during outages, and cut electricity costs in the long run. In short, solar, BESS & EV charging create a smarter, more resilient setup where you can drive on sunshine 24/7.

Conclusion

So, how many solar panels do you need to charge your car from home? The answer depends on your EV model, driving distance, and local sunlight. For most daily commuters in India, 3–6 high-efficiency panels are enough to offset daily charging needs, while 15–20 panels may be required for full off-grid charging of larger batteries.
Pairing solar panels with a smart home EV charger, like those from Servotech, is the most sustainable and cost-effective way forward. By investing in solar EV charging today, you not only save money but also contribute to a greener, cleaner India.

The electric vehicle (EV) revolution is no longer a distant possibility; it is here and rapidly gaining momentum. With governments pushing for clean mobility, rising fuel prices, and an ever-expanding fleet of EVs, the demand for accessible and reliable charging infrastructure has never been greater. Many businesses, entrepreneurs, and organizations are stepping into this space, recognizing the potential of EV charging stations as not just a service but a profitable long-term investment. However, as with any emerging sector, the rush to set up charging infrastructure often leads to costly mistakes that can affect both operational success and customer trust.

Top 5 Mistakes to Avoid When Setting Up an EV Charging Station in 2025

1. Choosing the Right Location 

One of the most common mistakes people make when setting up an EV charging station is choosing the wrong location. While the idea of installing chargers may sound straightforward, success heavily depends on accessibility, visibility, and convenience for EV users.

A station tucked away in an area with little traffic or poor connectivity won’t attract enough users to justify the investment. As EV adoption grows in 2025, strategic placement, such as near highways, shopping complexes, corporate parks, or residential communities, will determine how sustainable the station becomes. Businesses need to conduct proper location studies, traffic flow analysis, and grid availability checks before finalizing a site.

Read more: Top EV Charging Station Companies in India

2. Overlooking Power Supply and Load Management

Another pitfall is underestimating the importance of power supply and load management. EV chargers, especially Level 2 and DC fast chargers, require significant electrical capacity. Setting up a station without ensuring adequate grid infrastructure often leads to downtime, slow charging speeds, or frequent technical issues.

With more EVs expected on the road in 2025, power demand will only increase. This is where smart charging solutions, renewable integration like solar, and load balancing systems become essential. Ignoring these technical requirements not only frustrates customers but also puts unnecessary strain on the local grid.

3. Ignoring Charging Speed Variety

Equally problematic is the neglect of charging speed options. EV drivers today have different needs; some prefer a quick top-up during shopping trips, while others require fast charging during long-distance travel.

Limiting your station to only slow chargers or only fast chargers can alienate a large segment of users. In 2025, with battery technologies advancing and EV adoption spreading across commercial fleets and private ownership, offering a mix of Level 1, Level 2, and DC fast charging will become a competitive advantage. Stations that fail to adapt to diverse user requirements risk being left behind.

4. Weak Software and Payment Integration

A mistake that is often overlooked but can severely affect user experience is ignoring software integration and payment systems. Today’s EV drivers expect seamless digital solutions, whether it’s locating nearby stations via apps, reserving slots, monitoring charging progress, or making hassle-free digital payments.

Many new station operators underestimate the role of a reliable charging management system (CMS) and end up with outdated, inefficient platforms. In 2025, as customer expectations rise, stations that lack smart software will struggle to retain users. Investing in a robust CMS with remote monitoring, predictive maintenance, and flexible payment options is not just an add-on but a necessity for success.

5. Neglecting Compliance and Scalability

Lastly, one of the biggest mistakes is overlooking regulatory compliance and future scalability. EV charging infrastructure is still evolving, and governments continue to update policies, safety norms, and incentives. Entrepreneurs who fail to align their stations with the latest standards risk penalties or forced upgrades later.

Equally, planning only for the present without considering future scalability is short-sighted. With EV adoption projected to surge in the coming years, a station that is not designed to scale, whether by adding more chargers, integrating renewable power, or upgrading to higher-capacity units, may quickly become obsolete. Building with a long-term vision ensures that the infrastructure remains relevant and profitable for years.

Building Smarter for 2025 and Beyond

Setting up an EV charging station in 2025 is a rewarding venture, but it demands foresight, planning, and adaptability. Avoiding these common mistakes, such as poor location choice, inadequate power infrastructure, lack of charging speed variety, weak software integration, and neglecting compliance and scalability, can make the difference between a struggling station and a thriving hub. The future of mobility is electric, and those who plan their charging networks with precision and customer experience in mind will lead the way in shaping India’s EV journey.

Read more: Key Factors to Consider When Choosing an EV Charger

The global automotive landscape is undergoing a monumental shift, driven by the urgent need for sustainable transportation. Electric vehicles (EVs) are at the forefront of this revolution, offering a cleaner, greener, and often more exhilarating driving experience. This transition is particularly gaining momentum in India, where increasing environmental awareness, supportive government policies, and a growing appetite for cutting-edge technology are fueling the demand for electric cars. Consumers are actively seeking alternatives to traditional internal combustion engine (ICE) vehicles, recognizing the long-term benefits of EVs, including lower running costs and reduced emissions.

As we move closer to 2025, the excitement surrounding new EV models is palpable. Automakers worldwide are gearing up to launch a slew of innovative and technologically advanced electric cars, promising longer ranges, faster charging times, and a host of smart features. From established players to ambitious newcomers, the competition in the EV market is intensifying, which ultimately benefits consumers with more choices and competitive pricing. Get ready to plug into the future as we preview some of the most anticipated EV cars slated to hit the roads in 2025!

Unveiling the Electric Stars of 2025: Global and Indian Highlights

The year 2025 is shaping up to be a landmark year for electric vehicles, with a diverse range of models catering to various needs and preferences. Let’s delve into some of the most exciting upcoming EVs, with a special focus on the Indian market.

Globally Anticipated EVs

1. Tesla Model 3 (Redwood)

• Brand and Model: Tesla Model 3 (rumored codename “Redwood”)
• Launch Date (Expected): Late 2025
• Range (km/charge): 550-700 (estimated, depending on variant)
• Battery Type & Capacity: Lithium-ion, 60-85 kWh (estimated)
• Charging Time:
  • Normal Charge (AC): 8-10 hours (0-100%)
  • Fast Charge (DC): ~30 minutes (10-80%)
• Price (Estimated): $40,000 – $55,000 USD
• Unique Features: Redesigned interior and exterior, potentially enhanced Autopilot features, improved efficiency.

2. Hyundai IONIQ 7

• Brand and Model: Hyundai IONIQ 7
• Launch Date (Expected): Mid-2025
• Range (km/charge): 450-600 (estimated)
• Battery Type & Capacity: Lithium-ion, 80-100 kWh (estimated)
• Charging Time:
  • Normal Charge (AC): 9-11 hours (0-100%)
  • Fast Charge (DC): ~35 minutes (10-80%)
• Price (Estimated): $50,000 – $70,000 USD
• Unique Features: Spacious three-row SUV, futuristic design, advanced connectivity and driver-assistance systems.

3. Kia EV9

• Brand and Model: Kia EV9
• Launch Date (Expected): Early 2025 (Global), Later 2025 (India)
• Range (km/charge): 400-550 (estimated)
• Battery Type & Capacity: Lithium-ion, 76.1 kWh / 99.8 kWh
• Charging Time:
  • Normal Charge (AC): 8-10 hours (0-100%)
  • Fast Charge (DC): ~24 minutes (10-80%) (with 800V architecture)
• Price (Estimated): $55,000 – $75,000 USD (Global), ₹60 Lakhs – ₹80 Lakhs (India, estimated)
• Unique Features: Bold SUV design, ultra-fast charging capabilities, premium interiors, and advanced driver-assistance features.

Exciting Upcoming Electric Cars in India 2025

The Indian EV market is buzzing with anticipation for several new models in 2025, promising to cater to a wider range of budgets and preferences.

1. Tata Harrier EV

• Brand and Model: Tata Harrier EV
• Launch Date (Expected): Late 2025
• Range (km/charge): 400+ (estimated)
• Battery Type & Capacity: Lithium-ion, details yet to be fully disclosed
• Charging Time: Details yet to be fully disclosed
• Price (Estimated): ₹24 Lakhs – ₹28 Lakhs
• Unique Features: Electric iteration of Tata’s popular mid-size SUV, expected to offer a spacious cabin and robust performance.

2. Kia Carens EV

• Brand and Model: Kia Carens EV
• Launch Date (Expected): Late 2025
• Range (km/charge): 350-450 (estimated)
• Battery Type & Capacity: Lithium-ion, details yet to be fully disclosed
• Charging Time: Details yet to be fully disclosed
• Price (Estimated): ₹20 Lakhs – ₹25 Lakhs
• Unique Features: Electric version of the popular MPV, likely to offer spacious seating and a comfortable ride.

3. Tata Sierra EV

• Brand and Model: Tata Sierra EV
• Launch Date (Expected): Late 2025
• Range (km/charge): 400+ (estimated)
• Battery Type & Capacity: Lithium-ion, details yet to be fully disclosed
• Charging Time: Details yet to be fully disclosed
• Price (Estimated): ₹22 Lakhs – ₹27 Lakhs
• Unique Features: Iconic nameplate reborn as an electric SUV, expected to feature a unique design and focus on space and practicality.

4. Mahindra XEV 7e

• Brand and Model: Mahindra XEV 7e
• Launch Date (Expected): Mid-2025
• Range (km/charge): 300-350 (estimated)
• Battery Type & Capacity: Lithium-ion, details yet to be fully disclosed
• Charging Time: Details yet to be fully disclosed
• Price (Estimated): ₹15 Lakhs – ₹20 Lakhs
• Unique Features: Expected to be a more affordable EV offering from Mahindra, potentially targeting the mass market.

5. Toyota Urban Cruiser EV

• Brand and Model: Toyota Urban Cruiser EV
• Launch Date (Expected): Late 2025
• Range (km/charge): 300-400 (estimated)
• Battery Type & Capacity: Lithium-ion, details yet to be fully disclosed
• Charging Time: Details yet to be fully disclosed
• Price (Estimated): ₹18 Lakhs – ₹24 Lakhs
• Unique Features: Electric version of Toyota’s compact SUV, likely to emphasize reliability and fuel efficiency in its electric form.

7. Hyundai Ioniq 6

• Brand and Model: Hyundai Ioniq 6
• Launch Date (Expected): Mid-2025 (India)
• Range (km/charge): 450-600+ (depending on variant)
• Battery Type & Capacity: Lithium-ion, 53 kWh / 77.4 kWh
• Charging Time:
  • Normal Charge (AC): Varies
  • Fast Charge (DC): ~18 minutes (10-80%) (with 800V architecture)
• Price (Estimated): ₹40 Lakhs – ₹55 Lakhs
• Unique Features: Streamlined and aerodynamic design, ultra-fast charging, spacious interior, and advanced technology.

8. Mahindra XUV3XO EV

• Brand and Model: Mahindra XUV3XO EV
• Launch Date (Expected): Late 2025
• Range (km/charge): 300-400 (estimated)
• Battery Type & Capacity: Lithium-ion, details yet to be fully disclosed
• Charging Time: Details yet to be fully disclosed
• Price (Estimated): ₹16 Lakhs – ₹21 Lakhs
• Unique Features: Electric version of the recently launched XUV3XO, expected to offer a compact and feature-rich electric SUV option.

2025 EV Comparison Table: A Quick Look

Brand	Model	Expected Launch	Estimated Range (km)	Estimated Price (₹ Lakhs)
Tata	Harrier EV	June 2025	400+	24-28
Kia	Carens EV	June 2025	350-450	20-25
Tata	Sierra EV	August 2025	400+	22-27
Mahindra	XEV 7e	July 2025	300-350	15-20
Toyota	Urban Cruiser EV	July 2025	300-400	18-24
Hyundai	Ioniq 6	Mid-Late 2025	450-600+	40-55
Mahindra	XUV3XO EV	Late 2025	300-400	16-21

Note: Prices and specifications are estimates and may vary upon official launch.

The Road Ahead: Making Your Electric Choice in 2025

The electric vehicle landscape in 2025 promises to be more diverse and exciting than ever before. With a plethora of new models launching globally and especially in India, consumers will have a wider array of options to choose from, catering to different budgets, driving preferences, and lifestyle needs. From stylish coupe-SUVs to spacious family haulers and feature-rich sedans, the upcoming EVs are poised to accelerate the adoption of sustainable mobility.

Whether you prioritize long-range, cutting-edge technology, spacious interiors, or competitive pricing, the EV market in 2025 will likely have a vehicle that fits your requirements. Keep an eye on the official announcements and reviews as these exciting new models make their way to the showrooms. The electric revolution is here to stay, and 2025 is set to be a pivotal year in this electrifying journey.

The adoption of electric vehicles (EVs) is rising, with governments and industries worldwide pushing for cleaner, more sustainable transportation solutions. One major challenge with EV adoption is the dependency on grid electricity, which may still be generated from fossil fuels. Solar electric vehicle charging stations offer a promising alternative, leveraging renewable energy to power EVs while reducing the carbon footprint.

Overview of Solar EV Charging Stations

Solar EV charging stations integrate photovoltaic (PV) panels to generate electricity, which is then used to charge EVs. These stations can be installed in homes, businesses, and public areas, ensuring clean and green energy for electric vehicles. As the demand for EVs grows, the need for sustainable charging solutions becomes crucial, making solar EV chargers a viable long-term investment.

Importance of Renewable Energy Integration in EV Charging

Renewable energy plays a crucial role in mitigating climate change and reducing reliance on non-renewable sources. Solar energy, in particular, provides a limitless, eco-friendly power source that aligns with global sustainability goals. Integrating solar power into EV charging infrastructure ensures that the shift toward electric mobility is truly green and sustainable.

What is a Solar EV Charging Station?

A solar EV charging station is a facility that uses solar panels to generate electricity for charging electric vehicles. The key components of a solar EV charging station include:

• Solar Panels: Capture sunlight and convert it into electricity.
• Solar Inverters: Convert direct current (DC) from solar panels into alternating current (AC) for charging.
• Battery Storage (Optional): Stores excess energy for later use.
• Charge Controller: Regulates power flow to ensure efficient charging.
• EV Charger: Delivers electricity to EVs based on their charging requirements.

Difference Between Solar and Conventional EV Charging

Conventional EV charging stations draw electricity from the grid, which may be powered by coal, natural gas, or renewable sources. In contrast, solar EV chargers rely solely on sunlight, reducing dependency on the grid and lowering electricity costs. Unlike traditional stations, solar EV chargers can also function independently in remote locations, enhancing accessibility.

Incorporating Smart Charging

Modern solar EV charging stations are increasingly adopting smart energy management systems (SEMS). These systems intelligently manage the distribution of power between the EV, home appliances, and the grid. Key benefits include:​

• Optimized Charging: SEMS can schedule charging during peak solar production or off-peak electricity rates, ensuring cost-effective energy use.​
  
• Load Balancing: By monitoring energy consumption patterns, SEMS prevent overloading the home electrical system, maintaining safety and efficiency.​
  
• Integration with Renewable Sources: SEMS seamlessly coordinates between solar panels, home batteries, and the grid, ensuring optimal energy utilization. 

Implementing smart charging not only enhances the efficiency of EV charging but also contributes to a more sustainable and resilient energy ecosystem.​

Benefits of Solar EV Charging Stations

1. Cost Savings and Energy Independence

One of the biggest advantages of solar EV charging stations is cost savings. By generating electricity from the sun, these stations significantly reduce or eliminate electricity costs. Additionally, they provide energy independence by reducing reliance on fluctuating grid electricity prices and ensuring power availability even in the case of grid failures.

2. Environmental Impact and Sustainability

Solar EV charging stations contribute to a cleaner environment by reducing greenhouse gas emissions. Since solar energy is a renewable source, using it for EV charging minimizes the carbon footprint associated with electric mobility. Additionally, solar-powered charging reduces strain on the conventional power grid, promoting a more sustainable energy ecosystem.

3. Scalability and Future Readiness

Solar EV charging infrastructure is highly scalable, making it an ideal solution for urban and rural deployment. Whether for residential, commercial, or public use, solar charging stations can be expanded based on demand. Moreover, as battery storage technology improves, future solar EV chargers will offer even greater efficiency and reliability.

How Solar-Powered EV Charging Stations Work

Working Mechanism: From Solar Panels to EVs

The operation of solar EV charging stations involves several key steps:

1. Solar panels capture sunlight and convert it into electrical energy.
2. Solar Inverters transform the DC power from the panels into AC power.
3. Charge controllers regulate power flow to optimize charging efficiency.
4. Battery storage (if available) stores excess energy for nighttime or cloudy-day charging.
5. EV chargers distribute electricity to electric vehicles for charging.

Grid-Tied vs. Off-Grid Solar Charging Stations

• Grid-Tied Solar EV Chargers: Connected to the grid, these stations supplement solar power with grid electricity when solar generation is insufficient.
• Off-Grid Solar EV Chargers: Operate independently with battery storage, making them ideal for remote locations with limited grid access.

Role of Battery Storage in Solar EV Charging

Battery storage enhances the efficiency of solar EV charging stations by storing surplus solar energy for later use. This ensures a stable power supply, especially during non-sunny hours or peak demand times, making the charging stations more reliable and consistent.

Leading Charge Point Operators (CPOs) in India

Several Charge Point Operators (CPOs) in India are integrating solar-powered charging solutions to promote sustainable mobility. Some of the key players include:

• Servotech Renewable Power System – A leading provider of solar-integrated EV chargers.
• Tata Power EV Charging Solutions – Expanding its solar-powered EV infrastructure across India.
• Fortum Charge & Drive India – Deploying solar-based charging stations.
• Magenta ChargeGrid – Promoting green charging solutions through solar energy.
• Delta Electronics India – Developing hybrid solar EV charging infrastructure.

Government Initiatives for Solar-Powered EV Charging Stations in India

Policies and Incentives Supporting Solar EV Charging

The Indian government has introduced various policies to support the adoption of solar-powered EV charging stations. These include:

• Faster Adoption and Manufacturing of Electric Vehicles (FAME) II – Provides subsidies for EV infrastructure development.
• National Electric Mobility Mission Plan (NEMMP) – Encourages investment in clean energy EV charging.
• Solar Energy Corporation of India (SECI) Initiatives – Promotes solar-powered EV charging projects.

Key Government Schemes and Subsidies

• State-level incentives – Some states offer additional subsidies for setting up solar EV charging stations.
• Tax Benefits – Accelerated depreciation benefits and GST reductions on solar equipment.
• Net Metering Policy – Allows solar EV charging station owners to sell excess electricity to the grid.

Future Plans for Expansion of Solar EV Charging Infrastructure

The Indian government is planning widespread deployment of solar-powered EV charging stations along highways, urban centers, and rural areas. With increasing investments in solar technology and battery storage, the country aims to establish a sustainable EV charging network.

Conclusion

• Solar EV charging stations utilize renewable energy to power electric vehicles, reducing dependency on fossil fuels.
• They offer significant cost savings, environmental benefits, and scalability for future growth.
• The technology is evolving, with improved battery storage solutions enhancing efficiency and reliability.
• Leading CPOs in India are investing in solar-powered EV infrastructure to promote sustainable mobility.
• Government initiatives and subsidies are accelerating the adoption of solar EV charging stations.

The Future of Solar-Powered EV Charging in India

The future of solar-powered EV charging in India looks promising, with increasing investment, supportive policies, and technological advancements. As more businesses and individuals adopt this sustainable solution, India moves closer to achieving its green energy and electric mobility goals. Solar EV charging stations are not just an alternative but a necessity for a cleaner, greener, and energy-independent future.

Automatic Number Plate Recognition (ANPR) technology is a cutting-edge system that uses optical character recognition (OCR) to detect and read vehicle number plates. By employing advanced image processing algorithms, ANPR systems capture license plate data from vehicles in real time, making them invaluable in areas such as traffic management, parking systems, and law enforcement. In recent years, the integration of ANPR technology within the EV (Electric Vehicle) charging ecosystem and Charge Point Operators (CPOs) has gained significant traction, offering innovative solutions to enhance efficiency, security, and user experience.

What is an ANPR (Automatic Number Plate Recognition)

ANPR is a technology designed to identify and record vehicle license plates using high-speed cameras and software capable of processing and analyzing images. The extracted information is then compared with existing databases for various purposes, including traffic enforcement and access control.

How ANPR Technology Works

ANPR systems work by capturing images of vehicle plates through high-definition cameras, followed by image pre-processing to enhance quality. The OCR software then converts the image into text, which is cross-referenced with databases to extract relevant information. With advancements in AI and machine learning, ANPR technology has become more accurate and reliable than ever.

Evolution and Advancements in ANPR

Since its inception, ANPR technology has evolved significantly, from simple plate detection systems to complex, AI-driven solutions. Enhanced image recognition, faster processing speeds, and integration with cloud computing are some of the recent advancements.

Applications of ANPR Technology

1. Traffic Management and Law Enforcement

ANPR technology is essential for law enforcement agencies to monitor and track vehicles effectively. It helps detect unregistered, stolen, or suspicious vehicles, enhancing public safety. Additionally, ANPR systems contribute to improved traffic flow and enforcement of traffic regulations.

2. Parking Management Systems

Parking operators leverage ANPR for automated entry and exit systems, providing hassle-free parking experiences. The technology reduces wait times by instantly recognizing vehicles and granting access. It also improves security by monitoring unauthorized parking and enhancing revenue collection through accurate tracking.

3. Toll Collection and Access Control

ANPR systems streamline toll collection by automatically identifying vehicles and enabling contactless payments. This technology eliminates the need for manual ticketing and reduces traffic congestion at toll booths. Enhanced efficiency improves the overall user experience and revenue generation for toll operators.

4. Smart City Infrastructure

Integrating ANPR with smart city systems enhances urban management by providing real-time data on traffic patterns and parking availability. It supports better urban planning, reduces congestion, and improves overall transportation efficiency. ANPR technology plays a vital role in developing intelligent and connected urban environments.

The Role of ANPR in the EV Charging

i) Integration with EV Charging Stations

ANPR technology is being incorporated into EV charging stations to automate vehicle identification upon arrival. This integration enables seamless user authentication, allowing authorized vehicles to access charging services instantly. It also simplifies payment processing, enhancing overall convenience and efficiency.

ii) Enhancing User Authentication and Payment Processing

By replacing manual input with automatic vehicle recognition, ANPR technology simplifies the payment process. Users can enjoy contactless and secure transactions without additional steps. This approach enhances user satisfaction by offering a smooth, hassle-free charging experience.

iii) Streamlining EV Fleet Management

For EV fleet operators, oc provides valuable insights into vehicle location, charging status, and availability. Automated monitoring enables better scheduling, maintenance planning, and efficient resource allocation. This data-driven approach improves overall fleet performance and reduces operational costs.

ANPR Connection with CPO (Charge Point Operators)

1. How CPOs Utilize ANPR for Efficient Management

CPOs are adopting ANPR systems to streamline their operations by accurately identifying and tracking vehicles. This technology helps optimize charging schedules, reducing downtime and enhancing resource allocation. Automated monitoring also minimizes manual intervention, cutting operational costs. The result is a more efficient and responsive charging network.

2. Improving EV Charger Accessibility and Reservations

ANPR technology allows CPOs to offer reservation-based charging slots, enhancing convenience for EV users. By recognizing registered vehicles upon arrival, it ensures priority access and reduces waiting times. This system also improves user satisfaction by guaranteeing availability during peak hours. Effective reservation management boosts overall network efficiency.

3. Enhancing Security and Monitoring for CPOs

ANPR systems contribute to the security of EV charging infrastructure by continuously monitoring vehicles accessing the chargers. It helps detect unauthorized access or suspicious activities, enhancing the safety of the charging environment. Integrating ANPR with surveillance systems provides a comprehensive security solution. This proactive approach minimizes risks and safeguards assets effectively.

Benefits of Integrating ANPR with EV and CPO Systems

i) Improved Efficiency and Convenience

Integrating ANPR technology with EV and CPO systems automates vehicle identification and access control, minimizing manual interventions. This results in faster, smoother operations and reduced operational costs. Enhanced efficiency ensures a seamless experience for both service providers and users.

ii) Enhanced User Experience

By simplifying vehicle recognition and payment processes, ANPR integration speeds up charging sessions. Users enjoy a hassle-free, contactless experience that eliminates the need for physical authentication. The streamlined process leads to higher user satisfaction and loyalty.

iii) Data Collection for Better Planning and Maintenance

ANPR systems collect valuable data on vehicle usage patterns, charging frequencies, and peak times. CPOs can leverage these insights to improve maintenance schedules, enhance infrastructure planning, and optimize resource allocation. Data-driven decisions ensure better service reliability and network growth.

Challenges and Considerations

1) Privacy Concerns and Data Security

Collecting and storing vehicle data through ANPR systems raises significant privacy concerns. Ensuring data protection requires implementing robust encryption and compliance with privacy regulations. Transparent policies are essential to build user trust and avoid legal complications.

2) Technical Limitations and Costs

Deploying ANPR systems involves substantial costs, especially for large-scale networks of EV chargers. Technical challenges include ensuring accurate detection under various lighting and weather conditions. Balancing cost-efficiency and performance is critical for successful integration.

3) Legal and Regulatory Challenges

Different countries have distinct regulations governing the use of ANPR technology. Complying with varying standards and obtaining necessary permissions can be complex and time-consuming. Adhering to regional laws is essential to avoid legal hurdles and ensure smooth operations.

Future of ANPR Technology in EV Charging and CPO Systems

i) Emerging Trends and Innovations

AI-powered ANPR systems are enhancing accuracy and efficiency through real-time vehicle identification. Blockchain-based security solutions are being explored to protect data privacy and integrity. These innovations are driving the evolution of ANPR technology in EV charging systems.

ii) Potential Market Growth and Adoption Rates

The growing popularity of electric vehicles is boosting the demand for ANPR-integrated charging solutions. As more CPOs adopt this technology, market growth is expected to accelerate. Enhanced efficiency and convenience will further drive adoption rates globally.

iii) Policy Recommendations for Wider Implementation

Governments should create clear regulatory frameworks that address privacy, security, and interoperability concerns. Offering incentives and grants can encourage CPOs to adopt ANPR technology. Supportive policies will pave the way for widespread integration and innovation.

Conclusion

ANPR technology holds immense potential for transforming the EV charging and CPO landscape. As the technology continues to evolve, it promises enhanced security, efficiency, and user experience. The road ahead involves overcoming technical and regulatory challenges to fully unlock the benefits of ANPR technology within the EV and CPO systems.

India’s automotive landscape is undergoing a dramatic transformation, driven by a powerful surge in the electric vehicle (EV) industry. From bustling city streets to remote rural roads, the shift towards sustainable mobility is becoming increasingly visible. This blog, “An Overview of the Electric Vehicle Industry in India,” delves deep into this dynamic sector, exploring its current state, key drivers, challenges, and future potential.

As concerns about air pollution and climate change intensify, the Indian government, along with private players, is aggressively promoting EV adoption. This comprehensive guide will illuminate the intricate web of policies, technological advancements, and market trends shaping India’s EV revolution. We’ll examine the growing ecosystem of EV manufacturers, ev charging infrastructure providers, and battery technology developers, while also addressing the crucial aspects of consumer adoption and affordability. Whether you’re an industry professional, an aspiring EV owner, or simply curious about the future of transportation in India, this overview provides valuable insights into the electrifying journey ahead. Join us as we navigate the exciting and rapidly evolving world of electric vehicles in India.

What is an Electric Vehicle?

An electric vehicle (EV) is a mode of transportation powered by electric energy instead of conventional fuels like petrol or diesel. Unlike internal combustion engine (ICE) vehicles, EVs utilize electric motors and rechargeable batteries, making them eco-friendly and cost-effective. EVs help reduce carbon emissions, lower fuel expenses, and contribute to energy efficiency.

Types of Electric Vehicles

Electric vehicles can be categorized based on their power sources and energy efficiency:

1. Battery Electric Vehicles (BEVs): These are fully electric vehicles powered by batteries. They require external charging and produce zero emissions. Examples include the Tata Nexon EV and MG ZS EV.
2. Plug-in Hybrid Electric Vehicles (PHEVs): These vehicles combine an internal combustion engine (ICE) with a rechargeable battery. They can run on both electricity and fuel, offering flexibility. Example: Toyota Prius Plug-in Hybrid.
3. Hybrid Electric Vehicles (HEVs): Unlike PHEVs, HEVs charge their batteries through regenerative braking and the ICE. They cannot be externally charged. Example: Honda City Hybrid.
4. Fuel Cell Electric Vehicles (FCEVs): These vehicles generate electricity through a chemical reaction between hydrogen and oxygen. Though not widely available in India, they hold promise for the future.

What is EV Charging & How Does it Work?

EV charging refers to the process of replenishing an electric vehicle’s battery using an external power source. EV Charging stations, also known as Electric Vehicle Supply Equipment (EVSE), provide different charging speeds based on power output:

1. Level 1 Charging: Uses a standard household socket (120V) and takes the longest time.
2. Level 2 Charging: Utilizes 240V outlets, commonly installed in homes, offices, and public places, reducing charging time significantly.
3. DC Fast Charging: Provides rapid charging using direct current, enabling EVs to charge up to 80% within 30-60 minutes.

Current Scenario of the EV Industry in India

India’s EV sector is witnessing remarkable growth, with government policies like FAME-II (Faster Adoption and Manufacturing of Electric Vehicles) and state-level subsidies fueling adoption. Let’s explore the present landscape across different vehicle segments:

1. Passenger Cars

Electric passenger vehicles have seen a notable increase in adoption, with penetration rates projected to reach 4-6% by the end of the fiscal year 2025. Automakers are actively introducing new EV models to cater to diverse consumer preferences.

2. Two-Wheelers

The electric two-wheeler (e2W) segment has emerged as a frontrunner in India’s EV market, accounting for 85-90% of total EV sales in the fiscal year 2023. Penetration of e2Ws in overall two-wheeler sales increased nearly 5% during this period.

3. Three-Wheelers

Electric rickshaws (e-rickshaws) and electric three-wheelers are revolutionizing last-mile connectivity in India. Electric three-wheelers have gained traction, achieving a 7% penetration rate in fiscal year 2023 (excluding the e-rickshaw segment). This rate is expected to rise to 14-16% by fiscal year 2025. 

4. Heavy-Duty Vehicles

Heavy-duty vehicles (HDVs) like Electric trucks, electric buses, and hydrogen-powered heavy vehicles are gaining traction, reducing carbon emissions and operating costs. The electric bus segment has seen significant growth, with over 1,800 units sold in fiscal year 2023. Penetration is predicted to rise to 11-13% by fiscal year 2025.

Key Players in the EV Industry

1. Electric Vehicle Manufacturers

ii) List of India’s Passenger electric vehicle manufacturers

• Tata Electric
• Mahindra Electric
• MG Motors
• Hyundai India
• BYD

ii) List of India’s Two-wheelers electric vehicle manufacturers

• Ola Electric
• Ather Energy
• Bajaj Auto
• TVS Motor Company

ii) List of India’s Three-wheelers Electric Vehicles manufacturers

• Mahindra Electric
• Piaggio Vehicles
• Atul Auto
• Omega Seiki Mobility (OSM)

ii) List of India’s Heavy-Duty Electric Vehicles manufacturers

• Tata Motors
• Ashok Leyland
• Eicher Motors (VE Commercial Vehicles)
• Mahindra Electric
• Olectra Greentech
• PMI Electro Mobility
• JBM 

2. EV Charger Manufacturers

The demand for charging solutions is rising, leading to the emergence of major EV charger manufacturers, such as:

• Servotech Renewable Power System
• Delta Electronics
• ABB India
• Tata Power EV Charging Solutions
• Exicom Power Solutions

3. EV Charging Infrastructure Developers

To support EV growth, various companies are developing charging networks across India, including:

• Incharz
• Tata Power
• Statiq
• ChargeZone
• Magenta Power
• Fortum India

Future of the Electric Vehicle Industry in India

India’s EV industry is poised for rapid growth, driven by strong government policies, increasing consumer demand, and advancements in battery technology. India’s electric vehicle market is projected to grow at a CAGR of 28.52%, reaching US$ 18.319 billion by 2029, up from US$ 5.22 billion in 2024. According to Fortune Business Insights, the market is expected to expand significantly, increasing from US$ 3.21 billion in 2022 to US$ 113.99 billion by 2029, with a 66.52% CAGR. By 2030, India aims for EVs to comprise 30% of private cars, 70% of commercial vehicles, 40% of buses, and 80% of two- and three-wheelers.EV sales are projected to reach 15.3 million units, with two- and three-wheelers leading. However, charging infrastructure remains a challenge, requiring 5.6–5.8 million public units. Battery costs, limited range, and reliance on imports are hurdles, but advancements in local manufacturing and alternative battery technologies will boost growth. This rapid growth is fueled by government incentives, rising consumer demand, and advancements in EV technology and infrastructure Green hydrogen and biofuels may play a future role.  

Conclusion

India’s electric vehicle industry is on a transformative journey, backed by supportive government policies, technological innovations, and increasing consumer demand. With a growing emphasis on sustainability and energy independence, EVs are set to become the preferred mode of transportation. As infrastructure and battery technology continue to evolve, the future of electric mobility in India looks bright, paving the way for a cleaner and greener tomorrow.

Electric Vehicles (EVs) are gaining popularity as a cleaner, more efficient alternative to petrol/diesel cars. However, the longevity of your EV’s battery is key to ensuring you get the most out of your vehicle. By taking proper care of the battery, you can reduce maintenance costs and extend the range and life of your EV. Like any vehicle component, the EV battery requires proper care to ensure longevity and optimal performance. Maximizing your battery life enhances your vehicle’s efficiency and saves you from the expense of early replacements. In this blog, we’ll provide you with 10 valuable tips to help you get the most out of your EV battery.

What Is the Lifespan of Electric Car Batteries?

Electric cars, powered by lithium-ion batteries, have seen remarkable advancements in recent years. Designed for durability, these batteries have a lifespan between 8 to 15 years, with most EV warranties starting at 8 years. Future improvements in battery technology are expected to make them outlast the lifespan of the vehicle itself. The overall durability of an EV battery depends on several factors, including usage, environmental conditions, and maintenance. To ensure optimal performance and longevity, always refer to your vehicle’s specific charging guidelines, helping maximize both efficiency and lifespan.

10 Tips for Maximising Your EV’s Battery Life Span

Let’s explore these 10 EV charging dos and don’ts that apply to most electric vehicles.

1. Avoid Frequent Fast Charging

While fast charging is convenient, relying on it too often can degrade your battery over time. Fast chargers generate more heat, which can accelerate wear on the battery cells. Instead, use a home charger or a Level 1 or Level 2 charger whenever possible for daily charging needs. Reserve fast charging for emergencies or long trips.

2. Maintain Your Battery Charge Between 20-80%

Keeping your battery level between 20% and 80% is one of the best practices for extending its life. Charging to 100% or allowing the battery to drain below 20% can stress the battery cells, reducing their overall capacity. Many EVs allow you to set a charging limit — use this feature to protect your battery’s health.

3. Allow Your Battery to Cool Down Before Charging

Temperature plays a crucial role in battery performance. After a long drive, give your EV’s battery time to cool down before plugging it in. Charging a hot battery can lead to increased wear and reduced lifespan. Aim to charge when the battery is cool, ideally during the early morning or late evening.

4. Minimize Exposure to Extreme Temperatures

Extreme heat or cold can significantly impact your battery’s efficiency and lifespan. High temperatures can accelerate battery degradation while freezing conditions can temporarily reduce the battery’s capacity. Park your EV in a shaded area or garage whenever possible to protect it from harsh weather.

5. Drive Smoothly and Use Regenerative Braking

Aggressive driving, such as rapid acceleration and sudden braking, consumes more battery power and increases wear on the cells. Instead, drive smoothly and take advantage of regenerative braking, which captures energy and sends it back to the battery. This not only extends your battery life but also improves overall efficiency.

6. Limit the Use of Climate Control Systems

Air conditioning and heating can quickly drain your EV’s battery, especially in extreme weather. Try preconditioning your vehicle while it’s still plugged in to reduce the impact on your battery. Use seat warmers instead of cranking up the heater as they consume less energy.

7. Keep Your EV Software Up to Date

Manufacturers frequently release software updates for EVs that improve battery management and efficiency. Regularly updating your EV’s software ensures you benefit from the latest enhancements that can help extend battery life. Most modern EVs support over-the-air updates, so make sure your vehicle is connected to WiFi for seamless updates.

8. Perform Regular Maintenance and Check-Ups

Even though EVs have fewer moving parts than traditional vehicles, regular maintenance is essential for optimal battery health. Schedule periodic check-ups with a certified technician who can inspect the battery, cooling system, and other components. Catching potential issues early can prevent costly repairs down the line.

9. Plan for Long-Term Storage Properly

If you plan to store your EV for an extended period, aim to leave the battery charge between 50% and 60%. Avoid leaving it fully charged or completely drained, as this can accelerate battery wear. Some EVs offer a “storage mode” — activate this feature if available to maintain optimal battery conditions during long-term storage.

10. Keep Your Tires Properly Inflated

Maintaining the correct tire pressure is crucial for all vehicles, but it’s particularly important for EVs. Underinflated tires increase rolling resistance, making your EV work harder and draining the battery faster. Regularly check and adjust your tire pressure to the manufacturer’s recommended levels to optimize efficiency and extend your range.

Which EV Charging Station Is the Best?

Prolonging the lifespan of your EV battery is not just cost-effective—it’s essential for sustained performance. One key factor in extending battery life is maintaining the right temperature during driving and charging. Regular software updates and using regenerative braking can further enhance your EV’s range. The choice of charging stations also plays a crucial role in preserving battery health. For everyday charging, using a Level 1 charger helps maintain battery capacity. When you’re on the move, Level 2 or Level 3 fast chargers offer a quick boost. Incharz by Servotech is committed to providing reliable and efficient EV charging stations to ensure you can reach your destination with confidence. Thinking of upgrading your EV charger? Explore Incharz by Servotech—your trusted partner for smart, battery-friendly charging solutions that optimize your EV experience.

Conclusion

Taking good care of your EV’s battery is crucial for maximizing its lifespan and maintaining peak performance. Following these simple tips, you can enjoy a longer-lasting battery, reduce maintenance costs, and get the most out of your electric vehicle. Remember, your EV’s battery is one of its most valuable components — treat it with care, and it will reward you with efficient, reliable performance for years to come.

Servotech Power Systems Ltd., a leading manufacturer of Solar Products and EV Chargers rebrands as Servotech Renewable Power System Limited. The company has a long history in power conditioning products and name rebranding reflects its unwavering commitment to providing cutting-edge renewable energy solutions and aligns perfectly with its core vision: “Produce Green to Live Green”.

Originally focused on power conditioning products, Servotech has evolved over the past decade, progressively dedicating its resources and expertise to the renewable energy sector. This evolution has led to the company becoming a prominent manufacturer of solar products and EV chargers. The renaming to Servotech Renewable Power System Limited marks a crucial milestone in this journey, underscoring the company’s long-term vision to spearhead the transition to a sustainable energy future.

This rebranding is more than just a name change; it represents a complete realignment of the company’s focus. Servotech is now fully immersed in the “Produce Green to Live Green” philosophy, committing to developing and deploying technologies that minimize environmental impact and promote a cleaner future.

“We are incredibly excited to embark on this new chapter for Servotech,” said Raman Bhatia, Founder & Managing Director of Servotech Renewable Power System Ltd. (Formerly Servotech Power Systems Ltd.). “Our roots are in power conditioning, but our future is in green energy. This rebranding to Servotech Renewable Power System Ltd. communicates our unwavering commitment to driving the adoption of clean energy solutions and reflects our complete dedication to a sustainable future. We believe that producing green energy is essential for living green, and we are fully committed to this vision”, added Bhatia

Servotech aims to unlock vast opportunities, not only to contribute significantly to decarbonization efforts but also to emerge as a dominant player in the rapidly evolving energy landscape. The company is dedicated to providing innovative and comprehensive solutions that empower industries and communities to embrace a sustainable energy future, creating enduring value for both its esteemed customers and the environment.

India’s EV Market is witnessing explosive growth, driven by a confluence of factors: government incentives, surging consumer demand, and a burgeoning ecosystem of startups and established players. 2024 has been a pivotal year, marked by significant advancements across the Electric Vehicles India spectrum, from Electric Two-Wheelers India and Electric Cars India to charging infrastructure and battery technology. This blog post delves into the key developments that have shaped the EV Industry India landscape in 2024, providing insights into the future trajectory of this transformative industry.

In 2024, India’s EV Industry saw substantial growth, with sales reaching about 1.94 million units, a 26.5% increase over the previous year. The market is expected to develop at a compound annual growth rate (CAGR) of 22.4%, reaching $117.78 billion by 2032. Electric Two-Wheelers India led the EV market, with sales of approximately one million units in fiscal year 2024. Despite this development, issues such as limited charging infrastructure and high car costs continue to impact adoption rates. The government’s ambitious goal of having EVs contribute to 30% of new car sales by 2030 faces challenges, including a 20% increase in hybrid vehicle sales that exceeded growth in pure EVs. Overall, while India’s EV Industry is on the rise, concentrated efforts are required to overcome current challenges and meet stated targets.

PM E-DRIVE Scheme 2024

In 2024, India introduced the PM E-DRIVE Scheme, committing ₹10,900 crore (~$1.3 billion) over two years to increase EV adoption and improve charging infrastructure. The program focuses on promoting Electric Two-Wheelers India and three-wheelers, e-ambulances, e-trucks, and e-buses, as well as extending public charging infrastructure. This effort intends to minimize pollution and shift to cleaner fuels, contributing to the government’s goal of having EVs account for 30% of new car sales by 2030. PM E-DRIVE, which was announced on September 29, 2024, also funds modifications to vehicle testing agencies, representing a substantial step towards sustainable transportation.

Key Ministry Guidelines

In 2024, the Ministry of Heavy Industries (MHI) published major guidelines to strengthen India’s EV sector:

• Electric Mobility Promotion Scheme 2024 (EMPS 2024): The ₹500 crore initiative (April 1 to July 31, 2024) intends to promote the use of Electric Two-Wheelers India and three-wheelers, including e-rickshaws and e-carts. It focuses on offering economical and environmentally friendly public transport options, with incentives for automobiles with advanced EV Battery Technology in India.
  
• PM E-DRIVE: This two-year initiative, announced on September 29, 2024, gives ₹10,900 crore to assist electric vehicles such as e-2Ws, e-3Ws, e-trucks, e-buses, e-ambulances, EV public charging stations, and enhancing vehicle testing agencies.
  
• Operational Guidelines for Electric Mobility Promotion Scheme-2024: Issued in March 2024, these guidelines outline the operational framework for EMPS 2024, detailing the procedures for implementing the scheme and ensuring effective utilization of allocated funds.

These initiatives reflect the government’s commitment to fostering a sustainable and robust EV ecosystem in India.

EV Charging Infrastructure

In 2024, India made major efforts towards expanding its EV infrastructure. Public charging stations increased from 10,261 in September 2023 to 16,347 by March 2024, indicating greater EV usage. Karnataka took the lead, accounting for 24% of the national total with 5,705 stations, followed by Maharashtra (3,615), Delhi (1,931), Uttar Pradesh (1,845), and Tamil Nadu (1,221). By mid-2024, these states would collectively account for 60% of the nation’s charging infrastructure. Delhi intended to install 18,000 public and semi-public charging outlets, and Kerala’s State Electricity Board prioritized charging infrastructure to encourage EV growth.

The Role of AI in EV and IoT in EV in Transforming EV Operations

In 2024, the integration of AI in EVs and the Internet of Things (IoT) transformed India’s electric vehicle operations. AI in EV-powered solutions improved traffic navigation, collision avoidance, and route optimization, resulting in safer and more efficient transportation. IoT in EV-enabled real-time diagnostics has enabled innovative business models such as Battery-as-a-business (BaaS), resulting in cost-effective EV ecosystems. Furthermore, AI in EV-powered helpdesk solutions boosted customer service, hence improving the overall user experience. These breakthroughs demonstrate AI in EV and IoT in EV’s disruptive impact on the EV industry.

BIS EV Standards

In 2024, the Bureau of Indian Standards (BIS) issued two pivotal standards—IS 18590:2024 and IS 18606:2024—to improve the safety and quality of Electric Vehicles in India in several categories. These standards concentrate on important components including the powertrain and battery systems, guaranteeing that Electric Two-Wheelers India, four-wheelers, and heavy-duty vehicles fulfill strict safety criteria. BIS also created IS 18294:2023, which establishes safety requirements for e-rickshaws and e-carts, which are becoming increasingly popular throughout India. With these new standards, the BIS now has a total of 30 Indian Standards for electric vehicles and their components, including charging stations.

The Road Ahead: What 2025 Holds for the EV Industry

In 2025, India’s EV sector is expected to undergo revolutionary growth. Policies such as decreased GST on EV batteries, incentives for domestic production, and infrastructure status for charging stations are projected to boost adoption even further. The Vision 2030: PM Public Transport Sewa initiative, which includes plans to build 6,000 km of EV-ready highways along the Golden Quadrilateral and extend e-bus networks, demonstrates the government’s commitment to improving EV infrastructure.

Private sector involvement remains crucial, with companies such as Reliance Infrastructure exploring EV manufacture and global automakers releasing market-specific models. India’s EV Industry is expected to increase from $2 billion in 2023 to $7.09 billion by 2025, paving the path for an electrified and environmentally friendly future.