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Electric vehicles are booming in India, but so are reports of charging fires and short circuits. Recent incidents include an electric scooter that exploded while charging in Agra (September 2025) after a short circuit in its wiring, and multiple fires in Gujarat, from buses at depots to scooters in apartment parking lots.

This blog examines EV charging fire risks in India through three critical areas:

• Why charging fires are often cable failures, not battery faults
• How poor cable selection, installation, and accessories create overheating and fire risk
• What standards, certifications, and best practices are essential for safe EV charging

Why Do EV Charging Fires Often Start in Cables and Wiring?

Analysts note that as India’s public chargers have grown fivefold, safety concerns have risen. Fires in Gujarat (2024) included a BRTS bus charging fire and a tragic battery explosion in Surat. These cases highlight that charging fires are often electrical problems, frequently in the cables and wiring rather than mysterious battery malfunctions.

Cables carry high current from the grid to chargers and into the vehicle batteries. AC charging cables handle 230–415V at up to 32A, while DC fast-charging cables carry hundreds of volts at well over 100A, making EV charging cable safety a critical concern.

If cables are undersized or poor quality, they overheat. Just as a narrow hose cannot carry the flow of a firehose, thin cables heat under heavy current. Cheap, uncertified cables often use thinner copper or even aluminum conductors with flimsy insulation, making them unsafe for continuous EV charging. Aluminum cables, in particular, heat more and carry less current, making them unsuitable for continuous heavy loads. By contrast, high-quality copper cables offer far lower resistance and heat generation.

Cable thicknessmust match current. For example, home EV chargers (Level 2, 3.3–7.2kW) draw 15–32A. Industry guides recommend at least 4 sqmm copper cable for a 16 A charger and 6 to 10 sqmm for a 32A charger.

Why Undersized EV Charging Cables Are Dangerous

Too-thin wires heat up under load, risking melted insulation and fire. Voltage drop in long or thin cables slows charging and increases heat. Correctly sized, single-core copper cables avoid excess heat buildup. Experts emphasize dedicated circuit with proper gauge copper cable, MCBs and RCDs as mandatory for safe charging.

India’s climate magnifies risks. High ambient heat and humidity strain charging systems. Hot summer temperatures and direct sunlight can raise cable and charger temperatures well beyond the normal operating range. Cables under constant sun or in unventilated basements lose insulation quality faster. Voltage spikes or brownouts can cause arcing, further heating.

Human factors also play a role. Improper installation is another hazard. Loose screw terminals, poor crimps, or exposed conductors create high-resistance hot spots that can quickly ignite. Even good cables fail if poorly connected. DIY setups, tapping chargers into lighting circuits, or using extension cords are recipes for overload and overheating, directly impacting EV charging installation safety.

Low-cost accessories worsen the risks. Many generic charging cables and adapters lack surge protection, earth continuity, or thermal sensors. Experts advise using certified chargers with proper earthing, RCDs, and surge protection instead of improvised wiring.

Common EV Charging Installation Mistakes That Causes Fires

In apartments, Resident Welfare Associations (RWAs) often rush installations without upgrading building infrastructure. If multiple EVs draw high current without DISCOM-approved load increases, old wiring and meters overload. DIY electricians may use aluminum feeders, skip RCCBs, or fail to ground chargers. One case involved upgrading from 10 sqmm to 16 sqmm loops after a fire scare, which could have been avoided with proper design from the start.

Even professional installations can fail if not inspected. For example, burnt connectors, mismatched ferrules, or exposed wires have caused fires. Experts recommend electrical inspections before adding chargers, dedicated circuits with 30 mA RCDs, and proper conduit routing. Public EV charging stations and Public charging operators (CPOs) face stricter requirements: temperature monitoring, fire, and regular maintenance. Inspections catch frayed cables or loose lugs before they cause fires. In humid depots, cleaning contracts and testing protective devices is vital.

EV Charging Safety Standards: The Role of BIS, AIS, and Certification

India mandates Bureau of Indian Standards (BIS) EVSE standards (IS 17017 series), harmonized with IEC norms. These cover cable fire resistance to connector safety, IP55/IP65 enclosures, RCDs, and surge arrestors. Certified cables are flame-retardant (FR-LSH rated), tested for heat endurance, insulation stability, and durability, and carry ISI marks. Compliance reduces risks of insulation breakdown and overheating.

ARAI/ICAT certification (AIS-138) adds tests for temperature, water/dust ingress, and shock. In sum, buying only BIS/ARAI-certified chargers and cables is non-negotiable. Uncertified equipment may save costs but can fail catastrophically.

Choosing Safe Cables: Tips for EV Owners and Installers

Here are key tips to avoid the cable trap:

• Always use copper, correctly gauged cable: For a 15–16 A charger (~3.3 kW), use ≥4 sqmm copper; for a 30–32 A charger (~7.2 kW), use ≥6 sqmm. If the cable run is long (over 10–20 m), bump up a size (e.g., 10 sqmm) to prevent voltage drop. Crucially, the cable must be the right type – single-core, flame-retardant insulation (FR or FR-LSH), not a generic multitask wire.
• Inspect and replace damaged cables: Look for fraying, cracks, burn marks, or loose pins. Even small cuts in the sheath can expose conductors and spark. In apartment or depot settings, managers should schedule formal inspections of all chargers and wiring every few months.
• Install dedicated protection: Put the EV charger on its own MCB or circuit breaker (typically 32 A for home chargers) and a 30 mA RCCB. This isolates the charger from other loads. Never plug an EV charger into a multi-socket extension cord or a general outlet. Use conduits or cable trays to shield the cable from physical damage.
• Ensure proper grounding and surge arrestors: Good earthing (ground connection) is vital. All charge points should have an earth rod or building ground with a low-resistance path. Install surge protectors to divert spikes (from lightning or grid surges) away from the charger and cable.
• Watch the environment: Charge in shaded, ventilated areas whenever possible. Avoid placing chargers (and their cables) under direct sun or next to heat sources. In humid or dusty sites, keep cables off the ground and out of puddles. Never charge near flammable gas cylinders or solvents, a worst-case fire could spread quickly in such clutter.
• Use certified products: Buy cables and chargers that explicitly carry ISI/BIS or ARAI marks. If a vendor can’t show compliance, walk away. Even if an uncertified cord looks robust, it may be made of sub-par copper alloy or poor PVC. For peace of mind, stick with reputable brands or OEM-supplied cables; many EV makers now bundle ISI-rated cords with their cars.
• Schedule maintenance and monitoring: Fleet operators and CPOs implement a routine checklist. Include thermal imaging or temperature sensors on cable runs if possible. Many modern chargers can auto-shutdown at high temperature. If using multiple chargers in one parking, stagger charging times to avoid tripping the main feeder. Document any wiring changes and keep a log for insurance audits.
• Confirm certifications: Ensure that the installation and equipment have all required approvals. For home users, ensure the electrician tests the earth and obtains any needed electrical clearance. CPOs should register their hardware under BIS’s Compulsory Registration Scheme (CRS) and display the certificate. Consider getting an inspection by a licensed electrical safety auditor, especially for large or public charging setups.

Checklist: How to Avoid Cable-Related Fire Risks

• Use copper cables (not aluminum) for adequate cross-section for your charger’s current.
• Check for ISI/BIS certification marks.
• Have a qualified electrician install the cable on a dedicated circuit with its own MCB and RCCB. Follow conduit and grounding requirements.
• Inspect regularly for signs of wear (cuts, melting, discoloration) and tight connections.
• Avoid cheap adapters or uncertified plugs. Use only chargers and cables designed for EV use.
• Keep cables clear of heat and moisture; provide ventilation around chargers. Install weatherproof enclosures.
• Ensure your building’s electrical panel can handle the added load. Apply for a DISCOM load enhancement if needed.
• Install surge protection as per standards to protect against grid spikes.
• Train staff and tenants on EV safety rules and that it’s a shared responsibility.
• Keep all test reports (BIS, ARAI, CEIG) updated. Inform your insurer about the charging setup to keep coverage valid.

By adhering to these guidelines, EV owners and operators can ensure that hot wires stay cool. In India’s climate and busy buildings, neglecting cable quality invites disaster. But with proper cable selection, installation, and upkeep, all backed by official standards, EV charging can be both green and safe. Stakeholders from RWAs to CPOs and electricians must stay vigilant: the cables that power our EV revolution should never become the spark that ends it.

A recent Reuters report noted that quick commerce now accounts for two-thirds of all e-grocery orders, with market size projected to rise from USD 3.65 billion to over USD 6 billion by 2025–2026, up fivefold since 2022.

The sector already serves roughly 20 million customers annually across 400+ cities. Tech-enabled ‘dark stores’ and micro-fulfillment centers, small neighborhood warehouses, underpin this model, enabling orders to be picked and dispatched at lightning speed.

As Q-commerce has boomed, it has become a critical part of the broader e-retail ecosystem. It not only drives consumer expectations around instant delivery but also employs large gig fleets of delivery partners, often hundreds per dark store.

In Gurgaon, Blinkit reports that 80% of its last-mile fleet is already electric, while Instamart (Swiggy) aims for a 100% EV fleet by 2030, as highlighted in Outlook Business. This surge in vehicles and deliveries highlights the challenge of sustainable last-mile logistics, setting the stage for electrification.

Why Electrify Quick Commerce Fleets? 

Electrification of delivery fleets, especially two- and three-wheelers, offers multiple benefits that align with India’s needs and policies.

First and foremost is pollution and climate impact. Road transport is a major source of urban air pollution and carbon emissions. Commercial delivery vehicles typically travel 5–6 times more (daily) than a personal vehicle, multiplying their carbon footprint, as noted by Entrepreneur India. Transitioning to EVs can drastically cut tailpipe emissions (and noise) in congested city centers. Faster, scaled EV adoption is essential if India is to meet its carbon goals and clean air targets.

Cost efficiency is another driver. EVs cost more upfront but have far lower operating costs. Fleet operators report running electric two-wheelers at just ₹1.5–2 per km versus about ₹4 per km for petrol vehicles. Electricity is more stable than fuel prices and can be offset with solar. Factoring in lower maintenance and energy costs, EVs can save 40–60% per kilometer compared to ICE vehicles, as highlighted by Maritime Gateway. Under commercial high-usage models, payback periods can be as short as two years.

Policy mandates and incentives also push quick commerce fleets toward EVs. India has set ambitious EV targets (net-zero by 2070) and offers subsidies under the PM E-Drive scheme (₹10,900 crore in 2024) specifically targeting EV adoption in commercial fleets and charging infrastructure. States like Delhi have even mandated 100% electrification of delivery fleets by 2025. Companies such as Flipkart and Zomato pledged to have fully electric fleets by 2030. In short, electrification aligns with growing sustainability demands from regulators, brands, and customers alike.

Unique Charging Demands of  Quick  Commerce

Quick commerce delivery imposes special requirements on EV charging. Orders must go out almost instantly, with vehicles often running 15–20 hours per day, as highlighted by EV Reporter. This leaves little downtime for charging. Unlike taxis or commute vehicles that recharge overnight, quick commerce riders need fast charging or battery swaps between rushes.This is where EV charging for quick commerce fleets becomes critical, requiring high-speed, high-availability systems tailored for continuous operations.

Key demands include:

Speed and turnaround: A delivery scooter may only have 20–30 minutes for recharge during a lull. Fast charging (20 minutes for approximately 50 km range) or quick battery swaps are essential. Traditional 4–6 hour full recharges are not feasible in this model. 

Density: At a busy dark store, dozens of vehicles may need to charge during peak hours. Charging hubs must serve many EVs daily without queues. For example, EMO Energy estimates that a single 6kW fast charger can serve approximately 15–20 two-wheelers per day, matching the quick commerce pace. 

Peak-demand management: Lunch or dinner surges dozens of deliveries at once. Charging facilities must scale for these bursts without overloading substations. Some companies are already incorporating on-demand energy management. AI-driven systems like EMO’s NEXO, as introduced by EMO Energy, balance solar and grid power across chargers. There’s also emphasis on integrating charging with logistics; for instance, some fleets charge EVs on the spot while riders pick up orders,reflecting real-world EV charging for last mile logistics.

Infrastructure Challenges 

Building this infrastructure in dense Indian cities faces hurdles:

• Urban micro-hubs and space: Q-commerce thrives on local micro-hubs like dark stores, but they are small, and fitting chargers or swap bays is difficult. Traditional swap stations need 30–40% more space than equivalent fast-charging hubs, as highlighted by EV Reporter. Moreover, many leases don’t accommodate large charging equipment. Some companies are choosing warehouse locations with EV infrastructure in mind, but overall, real estate for chargers remains scarce around EV charging for dark stores. 

• Grid reliability and load management: India’s electric grid can be unreliable, and many neighborhoods lack spare capacity. Charging dozens of vehicles simultaneously can strain local transformers. This raises concerns over brownouts or equipment failure. Fleets often add battery storage to buffer peaks. Future systems may use vehicle-to-grid (V2G) strategies or time-of-use tariffs to shift load, but inconsistent grid quality remains a concern. 

• Lack of standardization: Two- and three-wheeler EVs lack a universal charging standard in India. This means swap stations and chargers must stock multiple battery types or adapters, often requiring approximately 1.5 batteries per vehicle to avoid shortages, as noted by EV Reporter. Fast chargers are simpler (many E2Ws use standard 230V AC plugs with Bharat-standard connectors), but their 3–6 kW output limits charging speed. Industry groups are working on unified standards like Bharat DC001 for E2Ws, but widespread adoption is pending.  

• Regulatory and utility barriers: Incentives largely target public car chargers; only a few incentives directly address private fleet charging or battery-as-a-service (BaaS) models. Additionally, utilities and local governments must streamline approvals for high-power electrical installations, which are currently slow. 

These challenges mean that quick commerce companies and infrastructure providers must creatively adapt traditional charging models to fit the new context of EV fleet charging infrastructure. 

Adapting Last-Mile Logistics 

Traditional delivery models are being retooled for EVs and fast logistics. Major quick commerce firms and e-commerce companies have rolled out EV programs and new infrastructure models: 

• Fleet electrification plans:  Flipkart (including BigBasket) has pledged 100% EVs in last-mile delivery by 2030. Blinkit alone had approximately 50,000 EV delivery partners by March 2025 and aims for 100% EV deliveries by 2030. Amazon India fielded over 10,000 EVs across 500+ cities by 2024. These large players are investing in EV-capable two- and three-wheelers (e.g., Ampere, Hero, and Ather models) and, in some cases, even long-range electric trucks for heavier loads. 

• Charging deployment: Flipkart has installed chargers at approximately 2,900 last-mile hubs nationwide. Swiggy and Blinkit are outfitting high-volume dark stores with chargers or partnering with EMO and Kazam. In many cases, quick commerce platforms subsidize charging for their rider networks, offering “pay-per-use” charging or leasing models, bundling energy in gig worker payouts, as highlighted by Outlook Business.

• Battery leasing & BaaS: Riders lease EVs and batteries through providers like Yulu, Zypp, and Chartered Bikes, including insurance and maintenance. Platforms incentivize riders by offering more favorable pay rates for EV usage or by partnering with BaaS (Battery-as-a-Service) firms, which handle the charging/swapping logistics. 

• Micro-hub design: Some Q-commerce companies are co-locating EV charging with product storage. New dark-store designs include dedicated charging bays. Zepto’s hubs in Gurugram reportedly have multiple swap/charge stations.  BigBasket has collaborated with Kazam and Zypp to electrify its fleet, with Flipkart setting up charging infrastructure at chosen hubs. 

Charging Models: Traditional vs. Quick Commerce 

To illustrate the differences, consider how a typical charging model compares to one tailored for quick commerce (especially two-wheelers): 

This comparison shows why quick commerce operations favor on-site fast charging and swapping models. By co-locating chargers at order hubs, companies minimize downtime and maximize delivery capacity. 

Electric vehicle drivers have clear, data-backed expectations for the charging experience. They want chargers that reliably work when needed, charge fast, and are convenient. Studies show EV owners often still worry about running out of battery, even though only about 8% have ever actually run out of charge, and 64% have never come close. This range anxiety makes trust in the EV charging network critical. 

A recent analysis found drivers expect functioning fast chargers, accessible stations, and safe, clean facilities to be top priorities. In short, EV drivers want charging stations to feel as dependable and hassle-free as traditional gas stations, if not better. 

This blog examines the psychology behind EV charging decisions and what drivers truly expect from a charging station, focusing on three core dimensions: 

• Trust in the network, driven by reliability and coverage 

• Perceived convenience, shaped by charging speed and location 

• Comfort and confidence, influenced by amenities, safety, and ease of use

Reliability and Coverage: Trust in the Network

Above all, drivers need charging stations to be reliable and available. Many EV owners complain that stations are too few, difficult to use, or simply broken.

In India, the concern is even more pronounced; as McKinsey & Company highlights, over 75% of EV users feel that the charging network is still “not yet well set up.”

This concern is becoming even more critical as adoption accelerates. According to TOI, in India, EV sales have surged to a record 24.5 lakh units in FY26, highlighting the rapidly growing demand for accessible and dependable charging infrastructure.

Speed and Efficiency: Every Minute Counts

Time is a major psychological factor in EV adoption. EV drivers strongly associate charging speed with convenience, making it a critical decision driver. According to insights from McKinsey & Company on EV consumer behavior in India, charging speed is the single most important factor for many users, with 49% of Indian drivers ranking it as their top criterion when selecting a charger.

Additionally, research highlighted by Next10 shows that every additional minute of wait time reduces a charger’s likelihood of being used by 6%. This sensitivity to time also translates into willingness to pay; drivers are ready to spend more for faster charging, with estimates suggesting around $1 extra per 100 miles of range and a 10–20% premium for quicker service.

In practice, this means EV charging station need plenty of high-power DC fast chargers, 24/7 uptime, and payment models that reward faster fills. Simply put, fast charging with minimal wait is not a nice-to-have; it’s a must-have in today’s EV world. 

Location & Convenience: Charging Where Drivers Frequent Most

EV drivers prefer charging stations in locations that fit their daily life and travel routes. Multiple surveys show that drivers overwhelmingly favor chargers at amenity-rich destinations. For DC fast charging, 74% of drivers want chargers at highway rest stops, 71% at shopping malls, 65% in parking garages, and 59% at restaurants. These are places where people naturally spend time while their car fuels up.  

Co-locating chargers with grocery stores, cafes, or malls dramatically boosts usage. One study from Next10 found charging events rose 2.7–5.2× near dining and grocery outlets. Workplace charging is also highly valued: roughly a quarter of EV drivers use workplace chargers daily, and another quarter weekly. In essence, drivers want chargers where they already are, at home, at work, or on frequent travel routes. 

Amenities & Comfort 

Since EV charging takes longer than refueling a conventional vehicle, drivers increasingly expect stations to offer added comfort and convenience. Charging stops are no longer just functional; they’re becoming experience-driven pit stops. Insights from Green Car Reports highlight that EV owners actively look for gas-station-style amenities such as air pumps, vacuums, restrooms, and clear charging information when choosing where to charge.

This expectation extends beyond basics. According to research referenced by Next10, EV drivers are 37% more likely to choose a charging station that offers amenities like restrooms or convenience stores. Many users also prefer locations with cafes, Wi-Fi, or comfortable seating; turning charging time into an opportunity to relax or stay productive.

In practice, this signals a shift in how charging infrastructure should be designed. The most successful EV charging hubs go beyond utility, integrating food outlets, coffee shops, retail spaces, and clean rest areas. As industry experts suggest, aligning charging infrastructure design with the amenities EV drivers value is key to improving utilization, satisfaction, and overall adoption.

Safety, Simplicity and Trust

Beyond speed and convenience, drivers care about safety, cleanliness, and ease of use. Charging in a safe, well-lit area is important.

Stations should feel secure and welcoming. User experience matters too: drivers expect simple interfaces and clear pricing. Insights from Green Car Reports highlight that drivers expect clear signage for pricing and charging speed, along with simple, familiar payment methods; similar to traditional fuel stations.

Research published on ScienceDirect further reinforces that ease of use, reliable functionality, and transparent systems are among the top expectations influencing user satisfaction. In practice, this means the entire journey—from discovering a charger on an app to initiating payment and checking real-time availability—must be seamless and intuitive.

Additionally, perspectives shared by Driivz emphasize that drivers want greater control over their charging experience, including quick, one-click visibility into charger status. When chargers are frequently out of service or interfaces are difficult to navigate, user confidence drops rapidly, impacting both usage and brand perception across public EV charging stations.

Ultimately, a reliable and frictionless user experience is not just a differentiator—it is essential for scaling EV adoption and ensuring consistent utilization of charging infrastructure.

Final Thoughts 

Putting it all together, the data paints a clear picture. EV drivers want charging stations that: 

• Always work: Reliable, well-maintained chargers with minimal downtime. 

• Charge quickly: High-power fast chargers so drivers spend less time waiting. 

• Are conveniently located: co-located with destinations like rest stops, malls, and workplaces, where drivers can shop or relax. 

• Offer amenities and comfort: facilities such as restrooms, food, Wi-Fi and even gas station perks like air pumps and vacuums to make charging breaks pleasant. 

• Feel safe and transparent: well-lit, secure locations with clear pricing and easy payment apps.

EV charging network in India has expanded rapidly over the last few years. Policy intent is strong, funding has been announced, and charger installations are steadily increasing across public, residential, and fleet segments. On paper, the ecosystem appears to be moving in the right direction. Yet, as explored in the first part of this series, “Current State of EV Charging in India”, growth in charger count has not translated into consistent availability, reliability, or commercial viability on the ground. The challenge is no longer whether chargers are being installed but how to scale them effectively. 

In this second part, we explore:  

• Core bottlenecks in charger deployment: regulatory and permitting friction, grid and distribution constraints, weak commercial viability, and fragmented technical standards 

• Why these issues persist despite supportive policies: misaligned incentives, uneven state adoption, limited grid visibility, and low utilization at many sites 

• Structural fixes to enable growth: from single-window clearances and grid-ready planning to better commercial models, standardized user experience, and integrated land-use planning 

What Are the Core EV Charging Bottlenecks Slowing Charger Deployment? 

Below are the fundamental, structural constraints that policymakers and industry cite as slowing charger deployment, commonly referred to as EV charging bottlenecks in India, beyond mere “lack of funding”.

Regulatory & Permitting Friction 

While the 2024 MoP guidelines made EV charging a de-licensed activity, approvals still require navigating multiple agencies. A charging station may need a city building permit, a fire safety NOC, and separate clearance from the local DISCOM.  

DISCOMs themselves have no standardized process. Some states mandate a fresh service connection and costly transformer upgrades; others allow sub-metering on an existing line. Tariff policy is improving, with most states now capping EV charger supply at the Average Cost of Supply (ACoS), but rates and rules vary widely.  

Providers offering open-access power for fast chargers may face a 15–25% surcharge on top of grid prices. Institutional incentives are also misaligned: PM E-DRIVE subsidies focus on equipment cost, not ongoing operational viability. In practice, heavy reliance on private players for network rollout has “not yielded expected results”, as one analyst notes, with installations remaining low where state support and demand signals are weak.

Grid & Distribution Constraints

The Indian grid was built for heavy industry and households, not sudden surges of mobile load. A key bottleneck is uncertainty around capacity. Distribution companies often lack EV-specific load forecasts or dedicated feeders. Without clear guidance, they default to cautious policies, such as rejecting large connection applications pending complete load studies. ORF (Observer Research Foundation) notes “limited visibility into grid infrastructure upgrade requirements” leaves CPOs unsure of costs and timelines. Upgrading a substation or line for fast chargers can be prohibitively time-consuming.  
 
On the system side, planning bodies like CEA and State load dispatch centers have only recently begun factoring EV growth into long-term forecasts. As a result, new chargers sometimes trip transformers or raise evening peak demand unexpectedly. In regions with already stressed grids (e.g., Delhi or parts of Maharashtra), DISCOMs are reluctant to permit more high-kW chargers without guaranteed compensation. The solution requires treating EVs as a new load category, with published processes for wiring up depots and public hubs, alongside smart charging policies (time-of-day tariffs, V2G) to smooth demand spikes across the EV charging network.

Commercial Viability 

Many charging businesses are losing money. Utilization rates are typically well below 25%, and the high upfront cost (₹2-3 lakh per fast charger plus civil works) often never pays off. Investors report lengthy payback periods (5-7+ years) unless cross-subsidized by real estate owners or the government.  
 
The PM E-DRIVE scheme’s ₹2,000 crore grant pool is intended to ease this, offering up to 100% subsidy on chargers at government sites and 80% on highways. Yet disbursment has been slow: as of late 2025, no scheme funds had been released for public chargers. Moreover, even subsidized sites need foot traffic. Analysts (and industry voices) emphasize that low utilization, not technology, is the pinch point. Poor site selection, such as charging kiosks on low-demand sidewalks, has been a common criticism. Until charging can become a reliable revenue stream, large investors and banks will remain cautious. 

Technical & User Experience Issues 

India’s charging ecosystem is fragmented. Different CPOs use different apps and connectors, and there is no unified platform for finding or booking chargers. A 2025 study notes drivers may need roughly 17–20 apps. Payment is another pain point: many drivers, especially chauffeured or elderly, still want cash/UPI at the station, but most chargers accept only card or app payments.  
 
Reliability is also problematic. A February 2024 report found 12,100 of 25,000 public chargers non-functional (almost 50%), with 38% of users citing poor uptime as a top cause of range anxiety. Frequent hardware failures (overheated breakers, cable damage) and patchy maintenance erode trust. Moreover, India lacks full interoperability: not all fast-chargers support all standards (e.g., CCS vs. GB/T vs. Bharat DC). While new rules mandate interoperability and calibration, legacy sites often remain in a single protocol. Addressing these technical gaps – through mandatory uptime SLAs, a nationwide charging portal, and stronger standards enforcement – is as critical as adding new plugs. 

Fostering Growth: Structural Fixes 

To truly unlock charging scale, the system needs multi-pronged fixes: 

Streamline Permits & Tariffs 

States must push a “single-window” clearance for chargers. For example, appointing a State Nodal Agency,  as suggested in the MoP 2024 guidelines, should mean a one-stop shop for site permissions and power allocation. Cross-subsidy surcharges or open-access fees for EV load (currently up to 20%) should be waived or reduced.  

Regulators should enforce the ACoS cap on charger supply tariffs across all states and establish uniform EV tariff categories for homes and businesses. Accelerated metering, such as pre-approved meter kits for EVs, can ease home charging. Policy must also incentivize equity in charger location: tying subsidies to utilization or mandating minimum uptime can prevent funds from being wasted on idle sites. 

Grid Capacity Planning

DISCOMs and CEA must integrate EV forecasts into planning now. Utilities should publish expected timelines for substation upgrades in fast-charging corridors, giving CPOs clarity.  Mandatory EV load forecasting will signal where new transformers or feeders are needed. Regulators could require time-of-day tariffs to encourage night/weekend use and defray peak stress. Smart-charging and vehicle-to-grid (V2G) pilots should be fast-tracked, with fleet vehicles providing grid services.  Renewable energy integration, such as solar carports at stations, can reduce grid draw and improve station economics. 

Improve Commercial Models

Charging stations should capture multiple revenue streams. Retail tie-ups (e.g., malls hosting chargers) and “energy plus amenities” (charging integrated with food/café services) can increase footfall. Standardized roaming frameworks,  similar to mobile networks, would let EV drivers use any network with one ID, raising usage. Financial support could shift to performance-based grants: subsidizing chargers only once minimum uptime or customer-use thresholds are met. Private fleets (taxis, delivery companies) should be encouraged to co-invest in public charging through demand aggregation schemes. 

Standardize User Experience 

The government’s digital portal for EV chargers and apps like “GoElectric” should be ramped up so all stations are listed,  bookable, and interoperable. Mandating a common payment interface (e.g., QR code payments at all chargers) will remove friction for users. Enforcing robust maintenance contracts,  perhaps by licensing CPOs, will improve reliability;  broken chargers are as bad as no chargers. Central bodies like CEA and BEE should continue issuing safety and interoperability standards (for plugs, meters, and cables) and ensure adoption. 

Land Use and Urban Planning

City planners should embed charging in zoning rules. States should adopt the MoHUA’s EV-ready bylaws (20% of new parking wired for EVs) uniformly, as Delhi and Maharashtra have. Public land and metro parking areas can be allocated to charging operators on concession, and streetlight/pole charging trials can be expanded in dense areas. Highway agencies must enforce the plan for chargers every 25–50 km; putting EV charging status on NHAI highway maps would help drivers and investors alike.  Chargers must be treated as vital infrastructure, on par with fuel stations or telecom towers. 

Final Thoughts 

India’s EV charging network has grown impressively on paper, but the “last mile” problems remain. As Tata.ev’s 2025 report notes, rapid charger deployments have improved coverage, yet “reliability issues continue to undermine user confidence”.  

Unless the real bottlenecks, such as multi-agency delays, grid readiness, commercial viability, and technical glitches, are addressed, confidence will falter. For CPOs, investors,  and policymakers, the path forward is clear: focus less on headline targets and more on enabling every link of the charging ecosystem. Only by fixing the structural kinks and dispelling myths that subsidies alone will suffice can India’s charging infrastructure truly power its EV ambitions. 

India experienced a record-breaking year in 2025, with total EV registrations reaching 2.3 million units, up from 1.95 million in 2024. EVs now account for 8% of all new vehicle registrations in the country.  Public chargers rose from approximately 5,000 in 2022 to around 25,000–26,000 by early 2025, yet this still meant one charger per 235 EVs (far above global norms).  By late 2025, India counted about 39,500 chargers (8,414 fast chargers), highlighting gaps in EV charging infrastructure in India.  
 
The gap between EVs and charging points is widening as adoption soars, undermining consumer confidence.  In this article, we explore:  

• Public charging networks: deployment patterns, utilization  challenges, land and grid constraints, and the commercial viability of fast-charging sites 

• Residential charging: the role of home and community charging, RWA-level challenges, wiring upgrades, and uneven adoption of national guidelines 

• Fleet charging: depot and highway charging for buses, autos, and commercial fleets, and how policy and grid readiness shape scalability 

Public Charging (Open Network)

Public chargers have expanded rapidly, roughly a five-fold increase from FY22 to FY25, thanks to government push and private investment.  Growth, however, has been uneven, with leading states such as Karnataka, Maharashtra, and Delhi clustering most chargers, leaving others underserved across the broader EV charging ecosystem India.  
 
Private operators report very low utilization: on average, under 25% across all stations. Many fast-charger sites remain nearly empty outside peak hours, making business models unviable.  Observer Research Foundation’s (ORF) 2025 study highlights execution gaps: project delays, stalled approvals, and opaque grid interconnections plague new sites.  
 
For example, developers often face repeated permit delays from DISCOMs or local bodies and sometimes outright rejection of grid connection requests. Land acquisition is another challenge, with charging operators struggling to get long-term rights on highway waystations. Even with subsidies, high capital and grid-upgrade costs remain. ITDP India notes that “land identification” and “high power connection costs” (including transformer upgrades) deter many Charge Point Operators. 

Some state governments are attempting fixes. Delhi, for instance, offers concessional land rates and has a low EV-specific tariff to spur stations. Several states have created EV policy committees to smooth approvals.  Yet misperceptions linger; many assume chargers can be deployed quickly when, in reality, a new fast charger often requires a 300 kW+ service upgrade, a multi-month process involving utility studies, transformer replacement, and new cabling.  Without integrated planning from the Central Electricity Authority (CEA) and DISCOMs, operators remain uncertain about upgrade costs and timelines for each EV charging station. 

Residential Charging: Home and Housing Complexes 

Home charging is the most convenient mode for India’s millions of two- and three-wheelers.  The 2024 Ministry of Power (MoP) guidelines allow homeowners to use existing meters or install a separate EV-dedicated meter and tariff. This means apartment owners can install a 3 kW–15 kW charger at home and pay regular residential rates, with distribution companies obliged to sanction any needed load increase. RWAs (Resident Welfare Associations) are permitted to set up “community charging” in parking lots, complementing Public EV charging stations in dense urban areas. However, the reality is messier. 

Many RWAs and electricians remain confused over wiring costs, sub-metering for visitors, or applicable safety standards. Reports note that despite central guidelines, several state governments have yet to adopt these guidelines.  

In practice, some housing societies flatly refuse EV chargers for safety or cost fears. Upgrading an old apartment’s electrical panel can cost ₹10,000–₹50,000 per slot, often shared among all residents, prompting objections from non-EV owners. Unsurprisingly, IEEFA found gated communities delaying or banning chargers “for fear of additional financial burden”. 

Although up to 80% of EV charging could occur at home (as in mature markets), India lags. Surveys show only about 55% of Indian EV owners currently have home chargers.  Cities are beginning to mandate wiring: Delhi’s EV policy (2020) requires 20% of parking in new buildings to be EV-ready, Maharashtra’s code mandates one charger per five parking spots in new projects, and Uttar Pradesh requires “at least one charger” for large residences. These rules help long-term, but enforcement is uneven. Many states lack EV-ready building codes, and existing complexes struggle to retrofit. The result: home charging, critical for EV transition, remains stuck in coordination limbo. Without clear RWA guidelines, financial incentives, or mandated infrastructure in old complexes, India cannot rely on private homes alone to bridge the gap. 

Fleet Charging: E-Buses, Autos and Delivery Fleets 

Fleets often manage charging “in-house” at depots or offices, sidestepping public network gaps. For example, e-buses rely on large DC chargers at bus depots; under PM E-DRIVE’s first phase, 10,900 e-buses were allocated to five cities (with operators bidding in late 2025). The 2024 guidelines allow bus depots to apply for high-power connections or open-access supply (with a 20% surcharge). In many cases, utilities expedite these, seeing the public interest. However, issues remain: some states lack clear policies for depot charging, and depots sometimes struggle to meet the required 240 kW minimum charger capacity for buses. 

Two- and three-wheeler fleets (delivery, auto rickshaws) mainly use swappable batteries or slow chargers.  Bottlenecks here are often operational, not infrastructural: e-rickshaw unions or fleets avoid costly parking fees, preferring back alleys or roadside vendors for cheap overnight charging. Few formal public chargers cater to autos, so drivers rely on informal arrangements. For trucks and ride-hailing cars, range anxiety is still a concern on intercity routes. Highway charging networks are in the pilot stage: NHAI and state agencies have invited bids to build wayside amenities (including charging) on major corridors, but the rollout of 25–50 km is only beginning across the national EV charging network. 

In sum, fleets drive electrification but also expose gaps. While they can deploy captive chargers (e.g., at depots or warehouses), large-scale fleet growth will eventually stress the common grid. Without robust public or semi-public charging infrastructure, fleet operators face higher costs (owning and maintaining hardware) and risk bottlenecks on longer routes.  Scaling fleet charging requires expansion both at depots and along highways to keep up with commercial EV adoption. 

Final Thoughts 

India’s EV adoption is moving faster than its charging infrastructure. While vehicle sales and policy intent are strong, execution challenges persist across public, residential, and fleet use cases. 

Public networks struggle with low utilization and grid constraints, home charging remains caught in coordination and cost disputes, and fleet charging, though often managed privately, will increasingly strain common infrastructure as electrification scales. Across all three, the issue is not demand but planning, approvals, and grid readiness. 

For India’s EV transition to sustain momentum, charging must be treated as essential infrastructure, planned, integrated with the grid, and supported by clear, enforceable standards. The success of the next phase will depend less on new incentives and more on whether charging can quietly and reliably keep up with the EVs already on the road. 

As of FY2025, Tier-2 and Tier-3 towns each accounted for over 10% of India’s EV market. Two-wheelers dominate: about 58% of EVs in Tier-2 and 71% in Tier-3 are electric scooters and motorcycles. Electric auto-rickshaws (3-wheelers) make up the next largest share, approximately 30% in Tier 2 and 22% in Tier 3. These trends reflect booming mobility demand in India, where rural and small-city Indians are adopting EVs to save on fuel costs.

Public charging infrastructure, however, lags behind.  Nationwide, there were only about 25,200 public chargers by mid-2025, heavily clustered in a few states.  Tier-2/3 states have far fewer stations.  

Decentralized solar-powered EV charging in India has emerged as a promising solution. Thanks to India’s abundant sunshine, even small solar arrays can meaningfully power EVs.  WWF reports that roughly two-thirds of India’s land (>1.89 million km²) receives more than 5 kWh/m²/day on average.  A 5kW PV system typically yields 20–25 kWh per day, enough to add 60–80 km of range to a scooter, sufficient for most rural commutes.  A modest rooftop PV setup (4kW) requires only 300–350 sq ft of area and costs ₹3–4 lakh (pre-subsidy). Larger ground arrays (10–50 kW) cost about ₹45–50 thousand per kW installed. Battery storage adds to the cost (around $100/kWh, or ₹9k/kWh), though prices are falling. 

This blog covers three core themes: 

• Where and how solar-powered charging models are already working 
• Whether the economics make sense (a close look at capital costs, operating savings, subsidies, and payback periods) 
• The challenges to scaling solar charging and practical solutions  

Why Solar EV Charging Makes Sense for India’s Small Cities and Towns 

Solar charging can take several forms in Tier-2/3 contexts: 

• Standalone PV charging stations: Off-grid “solar pumps” for EVs, typically with a PV array, inverter, and chargers (plus optional battery). These can be sited anywhere sunny—on open land, village squares, or petrol pumps. For example, Jabalpur (Madhya Pradesh) launched nine standalone solar e-rickshaw charging stations serving approx. 400 vehicles. Each station has approx. 50kW of PV and can charge up to four e-rickshaw batteries in 7–8 hours. The result: Drivers’ charging costs dropped to approx. ₹30 per charge (vs. ₹40–50 on the grid). 

• PV + storage hybrids: Solar panels tied to a battery bank ensure 24×7 availability. A pilot near Bengaluru Airport integrates 45kW of rooftop PV with a 100kWh second-life battery system. Solar fills the batteries by day, which then supply chargers at night or during peak grid hours. This RE2EV hub runs nine fast chargers and can charge 23 vehicles simultaneously, cutting grid strain. 

• Solar microgrids: Solar microgrids combine PV (often ground-mounted) with storage and multiple fast chargers. For example, in 2024, BluSmart, in collaboration with the Haryana Renewable Energy Development Agency (HAREDA) built  a  1.2 MW solar EV microgrid in Gurugram, powering 150 fast chargers and serving ~2,000 EVs per day. Tata Power and Indian Oil Corporation have also announced plans for similar solar-charging farms. Such microgrids can serve highway corridors or entire towns by acting as renewable power stations. 

• Battery-swapping stations with solar: Swapping batteries removes the charging time issue, especially for 2- and 3-wheelers.  Sun Mobility is scaling battery swapping for 2Ws/3Ws, moving from its 2024 target of ~300 solar-powered kiosks to a national rollout with Indian Oil, aiming for 10,000+ stations by 2027. 

• Community solar hubs: Small solar chargers can sit at local businesses, panchayat halls, or schools. Entrepreneurs are already experimenting with rooftop solar feeding wall-plug chargers.  These decentralized models cost 80–90% less than urban DC stations and fit village power limits. Over time, a “sun-to-scooter” ecosystem may emerge, where microgrids and rooftop PV become the backbone of rural mobility. 

This is a prime example of renewable energy EV charging being adapted to local contexts. Crucially, India’s solar resource can support these ambitions. Even partial deployment can significantly offset grid use. For instance, a 10kW solar array generates approx. 40–50 kWh/day, enough to charge an electric scooter (~100 Wh/km) for ~400km of travel daily. 

Economics and Financing 

A key question is cost and return on investment. Compared to metros, Tier-2/3 chargers tend to be lower-power (3–15 kW AC rather than 150+ kW DC) because vehicles are lighter and distances shorter. Indicative costs (excluding installation): 

• EV chargers: A 15kW AC charger costs ₹3.5–4 lakh. A 60kW DC fast charger runs ₹3–7 lakh. Installation (cabling, transformer, site work) add more. 

• Solar PV: Rooftop PV costs about ₹45,000–50,000 per kW installed. A 10kW system is roughly ₹4.5–5 lakh (before any subsidies). For reference, a 4kW home system costs approx. ₹2.9–3.1 lakh.) Ground-mount utility PV costs even less per kW. 

• Battery storage: Battery packs remain expensive and cost approx. $108/kWh (about ₹9,000/kWh). Thus, 100 kWh of storage is approx. ₹9–10 lakh.  

However, solar charging also saves money. Once installed, solar power is free fuel. Grid power in rural areas may cost ₹7–8 per kWh, whereas solar can cut effective electricity costs to near zero. For EV owners, this translates into very low per-km cost: approx. ₹0.15–0.20/km for electric two-wheelers vs ₹2–2.5 for petrol. Savings accumulate quickly; one analysis estimated annual operating savings of ₹25,000–30,000 per vehicle. 

Government incentives improve economics further. The PM E-Drive earmarks ₹2,000 crore for 22,100 chargers by 2026. The Ministry of New and Renewable Energy (MNRE) has set aside $120 million under the National Solar Mission for solar EV charging by 2027 with draft guidelines offering up to 50% capital subsidy. 
 
States like Uttar Pradesh, Gujarat and Rajasthan waive land conversion fees and grant additional incentives for EV infrastructure. The Bureau of Energy Efficiency’s new “Green Charging” initiative (2024) mandates that 25% of new public chargers by 2026 source at least half their power from renewables. Public–private collaborations are also reflecting this push: Adani Green Energy and ChargeZone have announced 1,000 solar-powered chargers along the Delhi–Mumbai Expressway. 

A rough cost breakdown for a small solar charging station might look like: 

• PV panels and inverter (10 kW): approx. ₹4.5–5 lakh. 
• Charger (15 kW): approx. ₹4 lakh. 
• Mounting, wires, installation: ₹1–2 lakh. 
• Battery (100 kWh): approx. ₹9 lakh. 

So, a 10 kW PV + 15 kW charger + moderate storage could total approx. ₹15–20 lakh. With government support (50% subsidy on the charger or PV, cheap loans), this cost drops significantly. A 10 kW PV system generates approx. 12,000–15,000 kWh/year, saving ₹90,000–1.2 lakh annually. At this rate, a 3–5 year payback is plausible. 

This makes solar charging one of the most attractive EV charging solutions for businesses operating in smaller towns, where cost savings and subsidies can accelerate adoption.

Challenges and Solutions

Despite the potential, several hurdles remain. 

• Intermittency and storage cost: Solar generates only during the day. Without batteries or a grid tie, charging stations would only work daytime. Adding enough battery storage for night charging drives up cost (₹9k/kWh). Second-life EV batteries (as in Bengaluru’s RE2EV) help but still add complexity. In most Tier-2/3 contexts, a hybrid approach (solar by day, grid or battery at night) is needed. 
• Maintenance and reliability: Solar panels need periodic cleaning and inspection. Battery banks and chargers require technical upkeep, which may be scarce in small towns. Local technician training is important. Moreover, panels and inverters must withstand local weather (dust, heat). 
• Awareness and trust: Rural customers and local officials may be unaware of solar-EV options. Outreach and visible pilots (like Jabalpur’s hub) can build confidence.  
• Upfront capital and business models: Even with subsidies, building solar stations requires upfront capital. Private operators worry about low initial demand in small towns. Innovative models (grants, concessional loans and CSR funding) can mitigate this. Peer-to-peer approaches (e.g. local entrepreneurs sharing risk in PPPs) are promising. 
• Proposed solutions: Analysts suggest combining approaches. For example, power-sector regulators and DISCOMs should co-plan with EV-charging companies to use solar and demand management..  
• Public–private partnerships (PPP) can mobilize investment: start-ups building village chargers could partner with utilities or panchayats. In fact, some EV infrastructure firms are already piloting solar micro-grids for rural e-rickshaw fleets. Also, technical workarounds like swapping (batteries replaced rather than charged) reduce grid dependence and are well-suited to off-grid solar. 

Role of Policy and Partnerships 

Beyond technology, governance will shape outcomes. Central schemes (FAME-II, E-Drive) are creating the funding framework, but many incentives target metros and highways. Policymakers must explicitly include Tier-2/3 solar charging in state EV policies. For instance, land-use norms could allow solar on common property (temple/market rooftops). DISCOMs should view solar chargers as allies and fast-track approvals. 

Local governments can designate charging sites at bus stands, schools or mandi complexes. Microfinance or rural banks can support entrepreneurs to install chargers. Training institutes (like the new EV and Solar skill centers) should include solar-EV tech in curricula, so technicians are available locally. 

Public–private collaborations are already underway. Major oil companies (IOC, HPCL) are rolling out EV chargers at their rural outlets, with plans to integrate solar. Tata Power has committed to equipping many of its new chargers with solar capacity. Startup–NGO partnerships (e.g. GIZ-BESCOM) developed the RE2EV solar hub in Bengaluru highlight the potential. 

Case Studies: Learning from Pilots

Several real-world examples illustrate the potential: 

• Bengaluru, Karnataka (2025): The RE2EV hub at Kempegowda Airport pairs 45 kW of rooftop solar with a 100 kWh second-life battery. It runs nine fast chargers (capable of 18 simultaneous charges) almost round-the-clock, reducing grid pressure. This project shows a model for other Tier-2 cities (e.g., Mysuru, Vijayawada). 

• Jabalpur, MP (2017): The city set up nine solar-powered charging kiosks for its approx. 400 e-rickshaws. Each 50kW station could charge four rickshaw batteries in one cycle. Drivers report that charging at these stations costs approx. ₹30, versus ₹45–50 if using grid electricity. This has encouraged more e-rickshaw owners to switch to electric, proving a “replicable model” for other small cities. 

• Delhi–Mumbai Expressway (upcoming): Leveraging a BEE mandate, Adani Green Energy and ChargeZone plan 1,000 solar-powered chargers along the highway. The first of these combines a solar canopy with EV stalls, providing clean, fast-charging at intervals.

Highways are often Tier-2/3 linkages, and this shows how EV charging infrastructure in Tier-2 cities can evolve when solar is integrated into planning. 

Future Outlook 

Solar EV charging can offer multiple long-term benefits for smaller cities and rural areas. By integrating into village power systems, these setups can double as mini-grids. For example, an EV charging station with battery storage could also supply nighttime lighting or pump irrigation after business hours. This leverages idle solar energy and improves local electrification. It also adds resilience: during power cuts, solar chargers with storage could keep critical loads or emergency vehicles running. 

Energy-wise, solar EV infrastructure moves India toward a virtuous cycle. Vehicles become not just transport but distributed storage (via V2G in the future), and rooftop solar investments will gain additional revenue streams through vehicle charging.  

Environmentally, widespread solar charging reduces tailpipe and coal-power emissions. Socially, it democratizes clean mobility: villagers gain low-cost charging, making EVs more accessible. Early studies note that rural commuters (10–25 km/day) fit EV range perfectly and that using solar cuts their daily energy costs to just a few rupees.  

If even 10–20% of small-town charging goes solar, it could save hundreds of GWh annually and avoid millions of tons of CO₂. As one analysis notes, an EV-powered village economy (with solar at its core) can thrive “even with weak grid connections”. 

In sum, solar-powered EV charging in India is viable and valuable but requires thoughtful execution. Key steps include targeting the right technology (smaller chargers, smart storage), securing affordable financing (leveraging new subsidies), and forging strong partnerships (utility–private–community).  

With 5–7 kWh/m²/day of sun and falling hardware costs, the technical foundation is solid. By building on the successful pilots and addressing the challenges above, India can spark an electric mobility revolution not only in its cities but across India, delivering clean, affordable transport and energy to all.