The State of India’s Electric Vehicle Charging Infrastructure: A Comprehensive Analysis of AC and DC Deployment (As of Q3 2025)

Executive Summary

India’s electric mobility transition is accelerating at an unprecedented pace, underpinned by a robust policy framework and significant public and private investment. A critical enabler of this transition is the rapid expansion of the nation’s electric vehicle (EV) charging infrastructure. This report provides a comprehensive analysis of the current state of this infrastructure, with a specific focus on the technological and strategic dichotomy between Alternating Current (AC) and Direct Current (DC) charging solutions.

As of 1 August 2025, official data released by the Government of India confirms the operation of 29,277 public EV charging stations (EVCS) nationwide. This figure represents a near six-fold increase from the 5,151 stations operational at the end of 2022, underscoring a period of hyper-growth in network deployment. While official government statistics do not offer a granular breakdown of charger types, credible industry analysis from mid-2025 indicates that the network is composed of approximately   

65% AC chargers and 35% DC fast chargers. This composition reflects the market’s early-stage dynamics, where the lower cost of AC chargers facilitated rapid initial coverage, catering primarily to the dominant two- and three-wheeler segments. 

Geographically, the charging infrastructure exhibits significant concentration, with the top five states—Karnataka, Maharashtra, Uttar Pradesh, Delhi, and Tamil Nadu—collectively hosting over 55% of all public charging stations. This distribution mirrors the regional patterns of EV adoption. Government initiatives have been the primary catalyst for this expansion. The now-concluded Faster Adoption and Manufacturing of (Hybrid and) Electric Vehicles in India (FAME II) scheme successfully laid a foundational network by leveraging state-owned Oil Marketing Companies (OMCs) to deploy thousands of chargers. Its successor, the Prime Minister Electric Drive Revolution in Innovative Vehicle Enhancement (PM E-DRIVE) scheme, aims to build upon this base with an ambitious target of supporting the installation of approximately 72,000 to 88,500 new charging points, backed by a dedicated fund of ₹2,000 crore.  

Despite this remarkable growth, the ecosystem faces significant operational headwinds. Systemic challenges, including low charger utilization rates (often below 20%), inconsistent reliability and uptime, and the complexities of grid integration for high-power chargers, present substantial barriers to profitability and consumer confidence. Furthermore, a fragmented digital landscape, characterized by a multitude of proprietary operator apps, creates a cumbersome user experience. The government’s plan to develop a unified “super app” under the PM E-DRIVE scheme is a direct and critical response to this issue. This report delves into these dynamics, providing a data-driven assessment of the current landscape and a strategic outlook on the opportunities and challenges that will define the next phase of India’s e-mobility journey. 

Section 1: National EV Charging Infrastructure Landscape

1.1 Current Deployment Status and Growth Trajectory

The most recent and definitive data from the Ministry of Power (MoP) and the Ministry of Heavy Industries (MHI), officially communicated through the Press Information Bureau (PIB), confirms that 29,277 public EV charging stations were operational across India as of 1 August 2025. This figure serves as the official national benchmark for assessing the scale of the country’s public charging network.  

The growth leading to this number has been exponential, positioning India as one of the world’s fastest-growing markets for EV charging infrastructure. An analysis of historical data reveals a clear and dramatic acceleration in deployment. At the close of 2022, the country had a modest 5,151 public charging stations. This figure more than doubled to 11,903 by the end of 2023. The momentum continued to build, with the network again more than doubling to 25,202 stations by December 2024. The addition of over 4,000 new stations in the first seven months of 2025 alone highlights the sustained, high-velocity expansion of the network. This trajectory is a direct result of concerted policy efforts and increasing investment in the sector. 

It is pertinent to note that minor variations in reported numbers can exist across different government platforms, a phenomenon indicative of a rapidly scaling and decentralized data collection ecosystem. For instance, the EV Yatra portal, managed by the Bureau of Energy Efficiency (BEE), reported a slightly lower figure of 26,247 operational stations around the same period. Such discrepancies arise from the inherent lags in data aggregation and verification as information flows from numerous state nodal agencies and private Charge Point Operators (CPOs) to the central repository. This is not a sign of systemic failure but rather a characteristic of a market in a phase of dynamic growth. The government’s initiative to develop a unified digital platform, or “super app,” under the PM E-DRIVE scheme is a strategic response aimed at harmonizing this data and providing a single, real-time source of truth for all stakeholders. For analytical purposes, the official figures released by the PIB are considered the most reliable benchmarks for tracking national progress. 

1.2 The Governance Framework: Key Agencies and Data Sources

The rapid expansion of India’s EV charging infrastructure is not an organic phenomenon but the result of a meticulously crafted governance structure involving multiple government agencies, each with a distinct and complementary role. Understanding this framework is essential for comprehending the policy drivers and regulatory landscape shaping the market.

At the apex is the Ministry of Power (MoP), which is responsible for formulating the overarching policy framework. The MoP issues the consolidated guidelines and standards for charging infrastructure, defining technical specifications, safety protocols, and tariff structures. Its guidelines, such as the clarification that setting up a charging station is a delicensed activity, have been instrumental in lowering the barrier to entry for private entrepreneurs.

The Bureau of Energy Efficiency (BEE), operating under the MoP, serves as the Central Nodal Agency (CNA) for the implementation and rollout of public EV charging infrastructure. The BEE’s mandate includes coordinating with state-level agencies, promoting charging infrastructure, and, crucially, developing and maintaining the national online database of all public charging stations. Its public-facing platform, the EV Yatra portal, is the primary official tool for consumers to locate charging stations and access related information. 

Financial impetus and scheme implementation are primarily managed by the Ministry of Heavy Industries (MHI). The MHI is the nodal ministry for flagship schemes like FAME II and its successor, the PM E-DRIVE scheme. It is responsible for allocating the substantial financial outlays for these programs, disbursing subsidies, and monitoring the achievement of deployment targets set for vehicles and charging infrastructure.   

Finally, strategic direction and long-term vision are provided by NITI Aayog, the Government of India’s premier policy think-tank. NITI Aayog plays a crucial role in shaping the e-mobility narrative by publishing foundational reports, conducting stakeholder consultations, and identifying key challenges and opportunities. It also develops analytical tools, such as the India Electric Mobility Index (IEMI), which evaluates the progress of different states and fosters a competitive environment for policy implementation and investment attraction at the sub-national level. Together, these four bodies form a cohesive governance structure that guides policy, facilitates implementation, provides financial support, and shapes the strategic direction of India’s EV ecosystem.   

Section 2: The AC/DC Dichotomy: Technology, Deployment, and Use Case Analysis

2.1 Technical Standards and Specifications in India

The Indian EV charging ecosystem is built upon a multi-tiered technological framework that accommodates a wide range of vehicles and use cases. The standards, primarily guided by the Bureau of Indian Standards (BIS) and aligned with global International Electrotechnical Commission (IEC) norms, are categorized into different levels based on power output and current type (AC or DC). A clear understanding of these technical specifications is fundamental to analyzing the strategic deployment of charging assets. 

• Level 1 (AC): This is the slowest charging level, typically using a standard 240V outlet. It delivers power up to 3.5 kW and is suitable for all vehicle types (two-, three-, and four-wheelers). The primary standards are Type 1 and the indigenous Bharat AC-001.  
• Level 2 (AC): This level offers faster charging speeds, delivering up to 22 kW of power using a 380-400V connection. It is also compatible with all vehicle types and supports a wider range of connectors, including Type 1, Type 2, GB/T, and Bharat AC-001. 

Direct Current (DC) Fast Charging: This method bypasses the vehicle’s onboard charger and delivers DC power directly to the battery, enabling significantly faster charging times. It is the preferred technology for public, en-route charging.

• Level 1 (DC): An entry-level DC charging standard, delivering up to 15 kW of power at 48V or higher. It is compatible with all vehicle types and primarily uses the Bharat DC-001 connector.
• Level 3 (DC): This represents the high-power fast charging category, with power outputs ranging from 50 kW to as high as 400 kW, operating on a 200-1000V architecture. It is designed primarily for four-wheelers and supports global standards like CCS1, CCS2, CHAdeMO, and Type 2.  

The Ministry of Power further classifies chargers based on speed for tariff and policy purposes. For AC chargers, any unit with a power rating up to 22 kW is considered “slow,” while those above are “fast.” For DC chargers, the threshold is 50 kW; units up to this rating are “slow,” and those exceeding it are classified as “fast” chargers. This distinction is crucial as it impacts the service charges CPOs are permitted to levy, directly influencing the business case for different types of charging stations.   

2.2 Quantitative Breakdown of the AC/DC Charger Network

A critical aspect of understanding India’s charging infrastructure is the quantitative split between AC and DC chargers. However, a significant data gap exists in this area, as official reports from government bodies like the PIB consistently provide the total number of public charging stations but do not offer a public, nationwide breakdown of the number of AC versus DC charging points or guns. This makes a precise, official quantification challenging.  

To bridge this gap, it is necessary to turn to credible industry analyses that collate data from various sources. A detailed analysis by the Vasudha Foundation, based on data up to March 2024 when the total number of stations was 16,347, provided a concrete breakdown. According to their findings, the network comprised 11,384 AC chargers and 4,963 DC chargers. This indicates a ratio of approximately 70% AC to 30% DC at that time. Further corroborating this trend, a separate industry report from mid-2025 estimated that nationally, only about 35% of all public chargers are DC fast units, with the remaining 65% being AC chargers. 

The current dominance of AC chargers in the network is not an accident but a direct consequence of the market’s early-stage characteristics and strategic deployment choices. The primary driver is cost. The capital expenditure for a DC fast charger, which can range from ₹3 lakh to over ₹30 lakh depending on power output, is substantially higher than that for a standard AC charger. In a nascent, price-sensitive market, deploying a larger number of lower-cost AC chargers was a more capital-efficient strategy to achieve widespread network coverage and visibility quickly. 

This approach was also aligned with the existing vehicle parc. The Indian EV market, particularly in its initial growth phase, has been overwhelmingly dominated by two-wheelers and three-wheelers, which together account for over 90% of EV sales. These smaller vehicles, with their smaller battery packs and different usage patterns, primarily rely on slower AC charging, either at home, at work, or through battery-swapping ecosystems. The initial infrastructure rollout naturally catered to this demand. Therefore, the current AC/DC ratio is a logical snapshot of a market in its infancy. As the four-wheeler EV market expands and inter-city electric travel becomes more common, the strategic imperative is shifting. The rate of deployment for DC fast chargers is now expected to outpace that of AC chargers, a trend that will be significantly accelerated by the strong focus of the PM E-DRIVE scheme on electrifying national highway corridors. 

2.3 Strategic Roles and Economic Drivers

The Indian EV charging market is evolving into a sophisticated, hybrid landscape where AC and DC chargers are not competitors but rather complementary technologies serving distinct and well-defined strategic roles. This bifurcation is driven by user needs, location context, and underlying economic models.  

DC Fast Charging is being positioned as the premier solution for “en-route” charging and high-throughput commercial applications. Its value proposition is speed, which is critical in scenarios where dwell time must be minimized. The primary domains for DC fast chargers are:

• National Highways and Expressways: To address the critical issue of “range anxiety” for long-distance travel, DC fast chargers are essential. Government mandates for placing a charging station every 25 km on highways are being fulfilled predominantly with DC technology.  
• Urban Forecourts: Strategically located at fuel stations operated by OMCs and in other high-traffic urban areas, DC chargers replicate the quick refueling experience of traditional petrol pumps, catering to users needing a rapid top-up. 
• Fleet Charging Depots: For commercial fleet operators, including logistics companies and electric bus services, vehicle uptime is directly correlated with revenue. High-power DC charging (often 60 kW, 120 kW, or higher) is indispensable for ensuring vehicles can be charged quickly and returned to service. 

  The economic model for DC charging is supported by a policy framework that allows for higher service charges. The Ministry of Power has set a higher ceiling on tariffs for DC fast charging (e.g., up to ₹12 per unit) compared to slow AC charging (e.g., up to ₹3.50 per unit), acknowledging the higher capital investment and the premium value of speed. 

AC Charging, conversely, is the foundational technology for “destination” or “long-dwell” charging. Its economic viability stems from its lower upfront cost and its suitability for locations where vehicles remain stationary for extended periods. The primary domains for AC chargers are:

• Residential Complexes: Overnight charging at home is the most convenient and cost-effective method for most EV owners. AC chargers are the standard for this use case.   
• Workplace Parking: Employees can charge their vehicles throughout the workday, making AC charging a perfect fit for office buildings and corporate campuses.
• Hotels, Malls, and Restaurants: These “destination” locations, where patrons spend several hours, provide an ideal opportunity for slower, more affordable AC charging. The lower hardware and installation costs of AC chargers result in a more favorable Total Cost of Ownership (TCO) for property owners and CPOs in these long-dwell environments, allowing them to offer charging as a value-added service or at a lower price point. This strategic segmentation ensures that the right technology is deployed in the right context, optimizing both capital investment and user convenience across the entire ecosystem. 

Table 2.1: Technical Specifications and Standards for EV Chargers in India

Section 3: Geospatial Analysis: Distribution and Accessibility

3.1 State-Level Analysis: Leaders, Laggards, and Regional Clusters

The rollout of public EV charging infrastructure in India is characterized by a significant geographical concentration. An analysis of the state-wise distribution of the 29,277 operational charging stations reveals that a handful of states are driving the national numbers, while many others lag considerably behind. This imbalance creates regional clusters of EV-readiness, directly influencing patterns of vehicle adoption and market development.

The top five states in terms of charging infrastructure are:

1. Karnataka: 6,097 stations
2. Maharashtra: 4,155 stations
3. Uttar Pradesh: 2,326 stations
4. Delhi: 1,967 stations
5. Tamil Nadu: 1,781 stations

Collectively, these five states account for 16,326 charging stations, representing over 55% of the entire national network. This concentration is not coincidental; it closely correlates with states that have proactive EV policies, higher rates of urbanization, greater economic activity, and consequently, higher EV sales. For instance, Karnataka and Maharashtra have been at the forefront of both EV adoption and policy implementation, creating a virtuous cycle where infrastructure growth supports vehicle sales, and rising sales create a stronger business case for further infrastructure investment. 

Conversely, many states, particularly in the northeastern and eastern regions, have a significantly lower density of charging infrastructure. States like Nagaland (42), Mizoram (13), and Sikkim (12) have minimal public charging facilities, which acts as a major barrier to EV adoption in these areas. This regional disparity highlights the need for targeted policy interventions and central government support to ensure a more equitable and geographically balanced expansion of the charging network, which is crucial for enabling seamless inter-state electric travel across the entire country.  

3.2 The Urban Concentration: A Tier-1, Tier-2, and Tier-3 City Perspective

Beyond the state-level view, an analysis of infrastructure distribution across different city tiers reveals a nuanced picture of urban concentration and the strategic focus on connectivity corridors. Official data from the Bureau of Energy Efficiency as of April 2025, which cataloged a total of 26,367 stations at the time, provides a breakdown by city classification: 9,702 stations in Tier-1 cities, 4,625 in Tier-2 cities, and 12,040 in Tier-3 and other areas. 

At first glance, the finding that Tier-3 areas have the highest number of charging stations seems counterintuitive, suggesting a deep penetration into rural India. However, a deeper analysis of the classification and deployment strategy reveals a different story. The “Tier-1” category is narrowly defined, encompassing only a few major metropolitan areas like Delhi, Mumbai, Bengaluru, and Chennai. “Tier-2” includes other large urban centers. Consequently, the “Tier-3” classification becomes a broad catch-all category that includes smaller towns, semi-urban areas, and, most importantly, the vast stretches of national and state highways that lie outside the administrative boundaries of major cities.

The government’s policy, particularly under the FAME II scheme, mandated the establishment of a charging station at every 25 km interval on major highways. This strategic push to create “e-corridors” connecting the primary Tier-1 and Tier-2 economic hubs has resulted in the installation of thousands of charging stations in locations that are technically classified as Tier-3 or rural. Therefore, the large number of chargers in this category is less an indicator of comprehensive last-mile rural charging access and more a testament to the success of the highway electrification program. This is a critical distinction for strategists and policymakers. While the highway network is becoming increasingly EV-ready, the challenge of providing adequate and accessible charging infrastructure within smaller towns and villages, away from the main transport arteries, remains a significant hurdle to be addressed in the next phase of network expansion. As of April 2025, there were 4,625 charging stations operational in Tier-2 cities, a number that will need to grow substantially to support wider EV adoption beyond the largest metropolises.  

3.3 Case Study – Uttar Pradesh: A Granular District-Level Deep Dive

To illustrate the challenges of infrastructure distribution even within a leading state, a granular, district-level analysis of Uttar Pradesh provides a compelling case study. As a state with the third-highest number of public charging stations (2,326), Uttar Pradesh appears to be a frontrunner in EV infrastructure. However, a closer look at the data reveals significant intra-state disparities that mirror the national trend of concentration.  

The official district-wise data shows that the charging infrastructure is heavily clustered in the state’s major economic and administrative centers. For example: 

• Gautam Buddha Nagar (Noida & Greater Noida): 100 stations
• Agra: 88 stations
• Prayagraj (Allahabad): 88 stations
• Lucknow (State Capital): 74 stations
• Gonda: 57 stations

These districts, which are key industrial, commercial, or pilgrimage hubs, have a relatively high density of charging facilities. In stark contrast, many smaller, more rural districts have a much sparser network. For instance, districts like Shrawasti (10), Kasganj (10), Farrukhabad (10), Shamli (11), and Auraiya (11) have a minimal number of public charging points. 

This analysis demonstrates that a high state-level total can mask significant local-level gaps in accessibility. The distribution pattern within Uttar Pradesh serves as a microcosm of the national challenge: infrastructure deployment is often concentrated in areas with existing economic activity and higher vehicle density, potentially leaving less developed regions underserved. This creates a chicken-and-egg problem where the lack of infrastructure in smaller districts deters EV adoption, and the low number of EVs provides a weak business case for CPOs to invest in those areas. Addressing this requires targeted policies, possibly involving viability gap funding or state-led initiatives, to ensure that the benefits of electric mobility are accessible to citizens across the entire state, not just in its largest urban centers.

Table 3.1: State-Wise Distribution of Public EV Charging Stations (as of 1 August 2025)

Section 4: The Policy Engine: Analyzing Government Impetus

4.1 The FAME II Legacy: Evaluating Targets and Achievements (2019-2024)

The Faster Adoption and Manufacturing of (Hybrid and) Electric Vehicles in India Phase II (FAME II) scheme, which concluded in March 2024, was the foundational policy that catalyzed the initial, large-scale deployment of public EV charging infrastructure in the country. The scheme, with a total budget of ₹11,500 crore, specifically earmarked ₹1,000 crore to address the critical infrastructure gap and alleviate consumer range anxiety. 

Under this allocation, the Ministry of Heavy Industries (MHI) sanctioned a total of 9,332 EV Public Charging Stations (PCS) to be deployed across the country. The implementation of this component of the scheme was highly successful. As of 30 June 2025, a total of 8,885 of these sanctioned stations had been installed and commissioned, representing an impressive achievement rate of approximately 95%. This demonstrates a strong execution capability in meeting the scheme’s infrastructure targets.

A key element of the FAME II strategy was the strategic use of Public Sector Undertakings (PSUs), particularly the three major state-owned Oil Marketing Companies (OMCs)—Indian Oil Corporation Ltd. (IOCL), Bharat Petroleum Corporation Ltd. (BPCL), and Hindustan Petroleum Corporation Ltd. (HPCL). These OMCs were collectively sanctioned to set up 7,432 public charging stations at their extensive network of retail fuel outlets. This approach was instrumental in kickstarting the national charging network. Before FAME II, private investment in public charging was severely constrained by high capital costs, uncertain returns due to low EV penetration, and the significant challenge of acquiring suitable real estate in prime locations. The government effectively bypassed these hurdles by leveraging the OMCs’ existing assets: a vast, strategically located land bank across highways and cities, and the capital and mandate to deploy infrastructure at scale.  

By tasking these PSUs with the initial large-scale rollout, the FAME II scheme created a visible and foundational charging network. This public investment served a crucial de-risking function. It demonstrated the viability of public charging, helped build consumer confidence, and established an initial infrastructure backbone. This legacy has been pivotal, creating a more mature and less risky market environment for the private sector to now enter and expand upon, a transition that the subsequent PM E-DRIVE scheme is designed to facilitate.

4.2 PM E-DRIVE: Fueling the Next Phase of Growth (2024 Onwards)

Building on the foundation laid by FAME II, the Government of India launched the Prime Minister Electric Drive Revolution in Innovative Vehicle Enhancement (PM E-DRIVE) scheme in September 2024. This new flagship program, with a total financial outlay of ₹10,900 crore, is designed to accelerate the next phase of e-mobility growth. A significant portion of this budget, ₹2,000 crore, has been specifically allocated for the expansion of public charging infrastructure, doubling the amount earmarked under its predecessor.   

The scheme sets forth highly ambitious targets for infrastructure deployment, aiming to support the installation of approximately 72,000 to 88,500 new EV public charging points across the country. This represents a quantum leap from the ~9,000 stations supported under FAME II and signals the government’s intent to achieve a high density of charging facilities nationwide. The deployment strategy under PM E-DRIVE is both strategic and targeted, focusing on high-utility locations to maximize impact. The plan includes the electrification of 50 national highway corridors and the densification of charging networks within high-traffic destinations such as metro cities, toll plazas, railway stations, airports, and existing fuel outlets. 

A notable evolution in policy design is the scheme’s specific targets for different types of chargers, reflecting a more mature understanding of the market’s needs. The total target of 88,500 charging points is broken down into:

• 22,100 fast chargers for four-wheelers
• 1,800 chargers for buses
• 48,400 chargers for two- and three-wheelers   

This granular approach ensures that the infrastructure rollout is aligned with the needs of different vehicle segments, from high-power DC fast chargers for electric cars and buses to a larger volume of slower chargers for the dominant two- and three-wheeler market.

Furthermore, the PM E-DRIVE scheme aims to address one of the key systemic challenges of the ecosystem: the fragmented digital user experience. The government is considering appointing BHEL (Bharat Heavy Electricals Limited) as the nodal agency for demand aggregation and, critically, for the development of a unified digital super app. This proposed platform would serve as a single interface for all EV users, offering features like real-time charger availability status, slot booking, and integrated payments, thereby aiming to solve the problem of users needing multiple apps for different CPO networks. This focus on digital infrastructure integration marks a significant and necessary step forward in improving the overall accessibility and user-friendliness of India’s public charging network. 

Section 5: Market Dynamics, Challenges, and the Path Forward

5.1 The Charge Point Operator (CPO) Ecosystem

The operational backbone of India’s EV charging network is a diverse and growing ecosystem of Charge Point Operators (CPOs). These are the entities responsible for installing, operating, and maintaining the charging stations. As of late 2025, the Bureau of Energy Efficiency (BEE) reports that there are 83 registered CPOs active in the country, a number that has grown significantly in recent years. The market is characterized by a dynamic mix of large Public Sector Undertakings (PSUs) and a variety of private sector players, from large corporations to agile startups.  

The landscape is currently dominated by the three major state-owned Oil Marketing Companies (OMCs), which were mandated to lead the initial infrastructure rollout under the FAME II scheme. Leveraging their unparalleled network of retail fuel outlets, these PSUs have established a commanding presence:

• IndianOil Corporation Ltd. (IOCL): Leads the market with 7,928 public charging stations.
• Bharat Petroleum Corporation Ltd. (BPCL): Operates 3,157 stations.
• Hindustan Petroleum Corporation Ltd. (HPCL): Has installed 2,290 stations. 

These three OMCs alone account for over 45% of the entire public charging network, highlighting the pivotal role of public sector investment in creating the foundational infrastructure.

Alongside the PSUs, a robust private sector is emerging. Prominent players include Tata Power, which has established one of the largest private charging networks in the country, and Jio-bp (a joint venture between Reliance Industries and bp), which has also deployed a significant number of chargers, with a notable focus on DC fast charging. Other key players include EV manufacturers like Ather Energy, which has built a dedicated charging network for its electric scooters, and numerous other private CPOs such as Fortum, ChargeZone, and Magenta Group, who are actively expanding their footprint through strategic partnerships with real estate developers, commercial establishments, and fleet operators. This blend of public and private entities is fostering a competitive and rapidly evolving market. 

5.2 Systemic Headwinds: Addressing Utilization, Reliability, and Grid Integration

Despite the impressive quantitative growth of the charging network, the Indian EV ecosystem is grappling with several critical operational and systemic challenges that pose significant headwinds to long-term sustainability, profitability, and consumer confidence.

Low Utilization: Perhaps the most pressing economic challenge for CPOs is the extremely low utilization rate of public chargers. Industry reports and stakeholder feedback consistently indicate that the average utilization across the network is often as low as 5% to 20%. This is a direct consequence of the current EV-to-charger ratio, where the number of chargers has, in some areas, grown faster than the number of EVs that require public charging. For CPOs, particularly those who have invested heavily in expensive DC fast charging infrastructure, these low utilization rates make it exceedingly difficult to achieve a positive return on investment, creating a challenging business case. 

Reliability and Uptime: A major source of frustration for EV users and a significant deterrent to potential buyers is the poor reliability of the existing infrastructure. A substantial number of installed public chargers are frequently non-functional due to technical faults, software issues, or lack of maintenance. Some reports suggest that at any given time, only 50-60% of public chargers are reliably operational. In some specific networks, the situation has been reported to be even more dire, with one analysis suggesting up to 60% of BPCL’s chargers were non-operational at a point in time. This unreliability erodes consumer trust and directly undermines the primary purpose of the public network, which is to alleviate range anxiety. 

Grid Integration: The increasing deployment of high-power DC fast chargers introduces significant technical challenges related to grid integration. These chargers draw a large amount of power from the grid in short bursts, which can cause voltage instability, power quality issues, and strain on local distribution transformers, especially in areas with older or weaker grid infrastructure. Mitigating these issues often requires costly and time-consuming grid upgrades, adding another layer of expense and complexity for CPOs and distribution companies (DISCOMs). 

Fragmented Digital Experience: The user-facing digital infrastructure is highly fragmented. With over 80 CPOs in operation, each typically has its own proprietary mobile application for locating, accessing, and paying for charging services. This forces EV users to download and manage multiple apps and payment wallets, creating a cumbersome and inconsistent user experience. The absence of a unified, interoperable platform—akin to the Unified Payments Interface (UPI) for digital payments—is a major friction point that hinders seamless access to the national charging network. 

5.3 Strategic Outlook and Recommendations

To navigate the existing headwinds and ensure the sustainable growth of India’s EV charging ecosystem, a multi-pronged strategic approach is required, focusing on data transparency, investment de-risking, digital unification, and proactive grid planning. Based on the comprehensive analysis, the following recommendations are proposed:

1. Mandate Enhanced Data Transparency and Reporting: The Bureau of Energy Efficiency (BEE), in its capacity as the Central Nodal Agency, should revise its data collection and reporting protocols. It is recommended that all CPOs be mandated to report a granular breakdown of their network, including the specific number of AC and DC chargers and their respective power ratings. This data should be made publicly available through the EV Yatra portal and other official channels. This single step would close a critical data gap, enabling more accurate market assessment, investment planning, and policy formulation.

2. De-risk Private Investment with Utilization-Based Incentives: While capital subsidies under FAME II and PM E-DRIVE have been effective in stimulating initial deployment, the primary challenge for private CPOs is now operational viability due to low utilization. To address this, the government should consider introducing innovative financial mechanisms that go beyond upfront capital support. This could include utilization-based incentives, where CPOs receive a per-unit subsidy for the energy dispensed, or viability gap funding for strategically important but low-traffic locations, such as certain highway stretches or rural areas. Such mechanisms would directly address the revenue risk for CPOs and encourage investment in expanding the network into underserved regions.

3. Accelerate the Development and Adoption of a Unified Digital Platform: The proposed development of a BHEL-led “super app” under the PM E-DRIVE scheme is of paramount strategic importance and must be fast-tracked. To ensure its success, this platform should be built on open standards and protocols, similar to the UPI ecosystem. This would allow any CPO to integrate their network via a standard API, and any third-party app to access the network’s data. Mandating features such as real-time data on charger status (operational, in-use, or out-of-order), transparent pricing, and interoperable payment options (including QR code-based UPI payments at the charger itself) is essential to solve the current problems of reliability and fragmented user experience. 

4. Foster Proactive Grid Planning and Integration: To mitigate the challenges of grid strain from high-power charging, a more collaborative approach between CPOs, electricity distribution companies (DISCOMs), and urban planning authorities is crucial. State nodal agencies should facilitate this collaboration. A proactive planning process should be established to identify strategic locations for high-power charging hubs based on both traffic patterns and existing grid capacity. This would allow for the clustering of DC fast chargers in areas where the grid can support them with minimal upgrades, while also informing DISCOMs’ future grid augmentation plans to support the growing EV load.

Table 5.1: Leading Public Sector Charge Point Operators (CPOs) in India by Number of Public Charging Stations