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EV Charging Network (Small Scale) Project Report: Industry Trends, Plant Setup, Machinery, Raw Materials, Investment Opportunities, Cost and Revenue

Report Format: PDF + Excel  |  Report ID: KMR-B3-2032  |  Pages: 161

Last reviewed: by KAMRIT research team

Article below is indicative only

This free report description below is to give you an investor-grade overview of the opportunity, CapEx range, regulatory architecture, and project economics. Specific BIS / IS standard numbers, FSSAI thresholds, licence fees, GST HSN codes, and government scheme rates change frequently and should be verified against the issuing authority before commitment. Engage KAMRIT for a verified, project-specific compliance map signed off by a named partner.

Market size, FY2026

₹2,395 crore

CAGR 2026-2033

34.1%

CapEx range

₹1.2 crore - ₹21 crore

Payback

2.4 - 4.7 yrs

EV Charging Network (Small Scale): DPR Summary

The EV Charging Network (Small Scale) project positions KAMRIT Financial Services LLP's client at the threshold of India's most compelling energy-transition infrastructure opportunity. The Indian EV charging infrastructure market stands at ₹2,395 crore in FY2026 and is projected to reach ₹18,672 crore by 2033, reflecting a 34.1% CAGR over this period. This growth trajectory is underpinned by structural tailwinds: the India 500 GW renewable energy target by 2030, PLI incentives for advanced battery manufacturing, ALMM enforcement driving domestic solar-battery integration, and the PM Surya Ghar Yojana expanding grid-tied rooftop capacity that enables smarter EV charging load management.

The competitive landscape remains concentrated among five established operators. Tata Power, the pan-India consumer brand with deep utility integration, operates over 5,000 public charge points across 500+ cities and commands the highest brand recall among personal EV owners. Exicom Tele-Systems, a family-owned legacy business that pivoted from telecom infrastructure to EV charging hardware and network operation, controls significant DC fast-charger market share through both hardware sales and managed networks.

Ather Energy, the established Indian leader in the electric two-wheeler segment, has begun rolling out proprietary charging infrastructure at its Experience Zones, creating an ecosystem play distinct from public charging generalists. Regional players and new entrants compete on density in Tier-2 cities and highway corridors. This report examines the investment thesis, regulatory architecture, technology selection, financial structuring, and risk parameters for a small-scale EV charging network deployment targeting a CapEx envelope of ₹1.2 crore to ₹21 crore, with an indicative payback of 2.4 to 4.7 years depending on site mix and utilisation assumptions.

India 500 GW renewable target by 2030 and PLI scheme for advanced manufacturing make the Indian ev charging network (small scale) category one of the higher-growth slots in its parent industry (34.1% CAGR, ₹2,395 crore today). KAMRIT's bankable DPR for a small-MSME unit arrives in 14 business days.

The report is positioned for a small-MSME entrant and is structured for direct submission to a commercial bank or NBFC for term-loan sanction under the Means of Finance set out below.

Market trajectory

₹2,395 crore in 2026, projected ₹18,672 crore by 2033 at 34.1% CAGR.

0 cr 4,903 cr 9,805 cr 14,708 cr 19,611 cr 2026: ₹2,395 cr 2027: ₹3,212 cr 2028: ₹4,307 cr 2029: ₹5,776 cr 2030: ₹7,745 cr 2031: ₹10,386 cr 2032: ₹13,928 cr 2033: ₹18,677 cr ₹18,677 cr 202620302033

Projection at constant CAGR; actual trajectory varies with macro and category shifts.

Regulatory and licence map for this ev charging network (small scale) project

Note: The regulatory items below outline the typical compliance architecture for this project type. Specific BIS / IS standard numbers, licence thresholds, GST HSN codes, and scheme rates referenced should be verified with the issuing authority (see References & primary sources at the bottom of this page). KAMRIT's compliance team confirms each item against current notifications during project engagement.

The EV charging station sub-sector operates under a multi-layered approvals architecture that combines central energy regulations, state-level EV policies, equipment certification mandates, and environmental clearances that are lighter than manufacturing DPRs but more complex than pure-play retail. KAMRIT's regulatory filing team maps each statutory touchpoint against the client's proposed site typology to eliminate parallel-path dependencies and sequence filings for minimum critical-path delay.

  • MNRE EV Charging Station Guidelines (2021, as amended): The foundational framework governing charging point operator obligations, interoperability standards, and consumer pricing transparency. Filing with MNRE's EV Charging Station portal establishes the operator as a registered CPO eligible for state EV policy incentives and priority grid connectivity.
  • BIS Certification under IS 17017 Series: The Bureau of Indian Standards mandate for EV charger safety and performance. CCS2 and CHAdeMO DC fast chargers require IS 17017-23 compliance; AC chargers require IS 17017-21. Certification from BIS-recognized labs in Pune or Delhi is prerequisite to DISCOM interconnection agreements.
  • CEA Technical Standards for EV Charging Infrastructure (2024): Central Electricity Authority regulations specifying metering standards, earthing requirements, and grid-interconnection protocols. CEA compliance reporting is annual and must be filed through the e-Nivaran portal. These standards matter most for DC fast chargers above 22kW where grid-impact studies are mandated.
  • State EV Policy Registration: Each state (Gujarat EV Policy 2023, Maharashtra EV Policy 2023, Delhi EV Policy 2.0, Tamil Nadu EV Policy 2023, Karnataka EV Policy 2023) offers land-conversion relaxations, electricity-duty exemptions for charging stations, and capital subsidy top-ups. State-level registration with the Transport Department's EV Cell is mandatory before commissioning. Gujarat and Maharashtra account for over 35% of all EV charging stations commissioned in FY2025.
  • DISCOM Electricity Supply Agreement (ESA): Power procurement from the state distribution company at EV-Special ToD tariffs. Gujarat Urja Vikas Nigam, MSEDCL, BSES Rajdhani, and Tangedco offer preferential EV charging tariffs ranging from ₹4.50 to ₹7.00 per unit during off-peak hours, which are critical to margin structure for slow-charging networks. The ESA requires load-sanction application, load-enhancement approval if site capacity exceeds 50kW, and KWH-meter installation as per CBIP specifications.
  • GST Registration and EV-Charging Composition Scheme: EV charging services attract 18% GST. Operators with turnover below ₹50 lakh may opt for GST Composition, reducing compliance burden. GST Input Tax Credit on capital equipment ( chargers, transformers) and electricity procurement must be carefully managed; this is where many small operators erode margins inadvertently by missing ITC claims on diesel-generator backup systems.
  • Pollution Control Board Consent to Establish (CTE) and Consent to Operate (CTO): Under the Water (Prevention and Control of Pollution) Act 1974 and Air (Prevention and Control of Pollution) Act 1981, EV charging stations are classified as Orange-category industries by CPCB (minor effluent discharge from battery-cooling systems). Consent from respective State Pollution Control Board is required before construction and annually thereafter. The filing requires site-plan submission, consent fee (₹10,000 to ₹50,000 depending on state), and declaration.
  • RERA Compliance for Commercial Real Estate Sites: If the charging station is located within a RERA-registered commercial complex (mall, office park), the promoter's charging amenity agreement must comply with RERA carpet-area disclosure norms and maintenance-charge regulations. This touchpoint applies only when the site host is a RERA-registered developer, which covers approximately 60% of premium commercial real estate in metro and Tier-1 cities.

KAMRIT Financial Services LLP manages the complete regulatory filing sequence for EV charging network DPRs: MNRE portal registration, BIS lab coordination, CEA compliance, state EV policy applications, DISCOM ESA negotiation, GST Structuring, SPCB consent management, and RERA interface for site-host agreements. Our Chandigarh and Mumbai offices maintain active relationships with regional pollution control boards and state DISCOM EV cells, reducing typical approval timelines from 6-8 months to 3-4 months for small-scale deployments.

Compliance setup process

Typical sequence to take this project from incorporation to ready-to-operate. Phases overlap in practice; durations are working-day estimates with normal MCA / state portal turnaround.

Indicative timeline: ~3 to 6 months total PHASE 1 Entity formation 2-3 weeks hover for detail PHASE 2 ARAI Type Appr... 12-24 weeks hover for detail PHASE 3 Factory & safety 4-8 weeks hover for detail PHASE 4 Environmental 6-16 weeks hover for detail PHASE 5 Tax & schemes 2-4 weeks hover for detail Phase 1 must complete before Phases 2-5. Phases 2-5 can largely run in parallel once entity is incorporated.
Sectoral context for this ev charging network (small scale) project

The EV charging infrastructure sub-sector in India is structurally differentiated from adjacent categories such as renewable energy generation or battery storage. Unlike solar rooftops where the offtaker is the prosumer and revenue certainty derives from net-metering regulations, EV charging networks monetise kilowatt-hours dispensed to vehicles owned by third parties, introducing demand uncertainty, vehicle-fleet mix risk, and customer-acquisition costs that are absent in rooftop solar DPRs. The sub-sector fragments across charging speeds: slow AC chargers (3.3kW to 22kW) serving workplaces, residential societies, and kirana-store parking bays; fast DC chargers (15kW to 120kW) serving fleet operators and intercity corridors; and ultra-fast chargers (150kW to 350kW) being deployed at highway fuel stations and mall basements.

Two-wheeler charging locks, three-wheeler depot charging, and heavy-vehicle Megawatt Charging Systems represent emerging sub-segments with varying growth gradients: two-wheeler charging infrastructure is growing at above-market rates of 45-50% CAGR as OLA Electric, Ather, and TVS expand their retail footprints, while heavy-vehicle charging remains nascent at sub-10% of total installations. The sub-sector is distinct from electric bus charging depots (which are utility-scale, above-50 charger deployments) and home charging (which is capital-light, consumer-funded). Small-scale EV charging networks (the subject of this report) occupy a distinct niche: 5 to 50 charger installations at commercial real estate, hospitality, or fuel retail sites, where the promoter provides the charging asset as an amenity generating ancillary revenue, while the primary business (parking, retail, hospitality) drives footfall.

Site-host economics are shaped by GST input-tax credit recovery on electricity procurement, EV-Charging-SpecificTime-of-Day electricity tariffs offered by select state DISCOMs, and O&M outsourcing versus in-house staffing decisions.

Project-specific demand drivers

  • India 500 GW renewable target by 2030
  • PLI scheme for advanced manufacturing
  • ALMM domestic preference enforcement
  • PM Surya Ghar Yojana driving rooftop demand
Demand drivers

Ordered by KAMRIT's view of relative importance for this category in India.

Top drivers (longer bar = stronger signal) India 500 GW renewable target by 2030 (relative weight ~100%) 1. India 500 GW renewable target by 2030 Relative weight ~100% PLI scheme for advanced manufacturing (relative weight ~80%) 2. PLI scheme for advanced manufacturing Relative weight ~80% ALMM domestic preference enforcement (relative weight ~60%) 3. ALMM domestic preference enforcement Relative weight ~60% PM Surya Ghar Yojana driving rooftop demand (relative weight ~40%) 4. PM Surya Ghar Yojana driving rooftop demand Relative weight ~40% Weights are KAMRIT's heuristic ordering, not empirical regression.
Technology and machinery benchmarks

Technology selection determines the operating-cost structure and revenue-per-sqft of an EV charging network over its 10-year asset life. The Indian market offers three technology tiers: Indian-manufactured AC chargers (Exicom, ChargeZone India, and Mahindra-Accelokwik) priced at ₹35,000 to ₹80,000 per unit for 7.4kW to 22kW models, subject to 18% GST and eligible for state subsidy top-ups under several EV policies; Chinese-manufactured DC fast chargers (various brands imported through trading houses) offering sub-₹15 lakh pricing for 30kW CCS2 units but carrying 25% BCD import duty and 18% GST, with post-2025 ALMM-equivalent compliance requirements creating procurement uncertainty for Chinese equipment; and European-manufactured ultra-fast chargers (ABB, Siemens, Kempower) priced at ₹30-50 lakh for 150kW units but offering higher uptime warranties (98%+ vs 92% for budget tier) and reduced O&M cost-per-charge-session over a 7-year horizon. For a small-scale deployment in the ₹1.2 crore to ₹21 crore CapEx band, KAMRIT recommends a hybrid technology stack: 60-70% Indian-manufactured AC slow/fast chargers (3.3kW to 22kW) for workplace and retail sites where charger uptime is manageable by on-site staff, and 30-40% Indian-assembled or European-component DC fast chargers for highway-adjacent or fleet-terminal sites where revenue per session justifies higher per-unit investment.

The Bharat DC001 standard charger (15kW DC) offers the most favorable cost-per-kW for Indian-made fast chargers and aligns with government fleet procurement requirements, improving likelihood of ORIX, LeasePlan, or state-government fleet contracts. Charging point operator software platforms (EcoFasten, ChargeZoneOS, and Tata Power EZ Charge app) enable dynamic pricing, RFID and UPI payment integration, and OCPP 1.6/2.0 interoperability that is required for MNRE registration. Energy storage integration using LFP battery packs (BYD India, Luminous) reduces peak-demand charges by 25-35% for sites with high DC fast-charger utilisation above 6 hours per day.

Bankable Means of Finance for this ev charging network (small scale) project

KAMRIT recommends a capital structure calibrated to the project's ₹1.2 crore to ₹21 crore CapEx envelope with a debt-to-equity ratio of 65:35 for sites below ₹5 crore CapEx (where promoters typically retain operational control) and 70:30 for ₹5 crore to ₹21 crore deployments (where institutional co-investment is feasible). State Bank of India offers EV Charger Finance under its Green Energy Finance vertical at MCLR-linked rates (currently 8.65-9.40% per annum) with tenure up to 10 years and collateral requirement reduced to 60% of loan amount for equipment-financed cases. HDFC Bank's Commercial Vehicle and EV Finance desk handles charging station proposals above ₹50 lakh with similar tenures at 8.85-9.60%. SIDBI's SIDBI-IREDA co-lending arrangement for EV infrastructure projects offers differential interest rates (30-50bps below market) for proposals incorporating MNRE-certified domestic equipment, with a processing time of 21 working days. IREDA's rooftop solar and EV charging co-lending program (updated 2024) is directly applicable to solar-canopy EV chargers, where MNRE's PM Surya Ghar Yojana provides up to 40% capital subsidy on the solar component, improving project IRR by 200-400 basis points. For sub-₹2 crore deployments, CGTMSE coverage (up to ₹5 crore) enables collateral-free loans from regional rural banks and cooperative banks, which is particularly relevant for Tier-2 city sites near industrial corridors (Pithampur, Sanand, Bhiwandi). The working-capital cycle for EV charging networks is short: electricity is consumed and paid to DISCOM monthly (30-day cycle), while revenue is received via UPI, RFID, or app payment within T+1 to T+3 days. This favourable cash-conversion cycle reduces the need for large working-capital limits (₹8-12 lakh per 10charger site is typical), and most banks provide ₹15 lakh overdraft facilities against receivables. KAMRIT's financial model for this project incorporates sensitivity at 60%, 75%, and 90% utilisation rates, yielding NPV-positive scenarios at ₹6.50 per kWh average dispensing tariff across all three scenarios within the stated payback band of 2.4 to 4.7 years. GST input tax credit recovery on capital equipment (approximately ₹18-25 lakh for a ₹1.5 crore installation) must be claimed within the first return cycle to preserve working capital.

CapEx allocation (indicative)

Project CapEx ranges ₹1.2 crore - ₹21 crore. Typical split for a viable, bank-ready configuration:

Plant & machinery: 45% (approx. ₹5 cr of ₹11.1 cr CapEx) 45% Building & civil: 22% (approx. ₹2.4 cr of ₹11.1 cr CapEx) 22% Utilities & power: 12% (approx. ₹1.3 cr of ₹11.1 cr CapEx) 12% Working capital: 14% (approx. ₹1.6 cr of ₹11.1 cr CapEx) 14% Contingency & misc: 7% (approx. ₹0.78 cr of ₹11.1 cr CapEx) AVERAGE ₹11.1 cr CapEx Plant & machinery 45% · ~₹5 cr Building & civil 22% · ~₹2.4 cr Utilities & power 12% · ~₹1.3 cr Working capital 14% · ~₹1.6 cr Contingency & misc 7% · ~₹0.78 cr Low ₹1.2 cr High ₹21 cr

Split is a typical mid-cap manufacturing configuration. Actual allocation varies with site, automation level, and import vs domestic equipment sourcing.

Cumulative cash position

Cumulative free cash from ₹11.1 cr CapEx, indicative breakeven by Year 4-5 at conservative utilisation assumptions.

0 ₹6.7 cr ₹-15.54 cr Year 1: negative ₹-14.43 cr cumulative (this year cash flow ₹-3.33 cr) Year 1 Year 2: negative ₹-9.99 cr cumulative (this year cash flow +₹1.1 cr) Year 2 Year 3: negative ₹-6.1 cr cumulative (this year cash flow +₹3.9 cr) Year 3 Year 4: negative ₹-1.11 cr cumulative (this year cash flow +₹5 cr) Year 4 Year 5: positive +₹4.4 cr cumulative (this year cash flow +₹5.6 cr) Year 5

Model assumes 60% Year 1 utilisation, ramp to 90% by Year 3, 18% EBITDA on revenue ~1.6x CapEx at maturity. Engagement scope refines these to your specific configuration.

Risks and mitigation for this project

The three primary risks specific to an EV charging network DPR are vehicle-fleet-adoption uncertainty, DISCOM tariff repricing, and technology obsolescence from charging-protocol standardisation. India's electric vehicle penetration in the personal-car segment remains below 3% of total car sales (FY2025), and slow-charging networks in residential and workplace locations are exposed to underutilisation if EV adoption growth decelerates below the 34.1% CAGR projected for charging infrastructure. KAMRIT's bankable DPR structures utilisation-sensitivity at 15% above and below the base case, with break-even preserved at 55% annual charger utilisation for AC fast chargers and 40% for DC fast chargers (which earn higher revenue per session).

The second risk is regulatory tariff repricing: several state DISCOMs that currently offer ₹4.50-5.50 per unit EV-special tariffs are reviewing these as cross-subsidy burden grows, and any upward tariff revision of more than ₹1.50 per unit compresses operating margins by 18-22%. Mitigation structures in the DPR include: (a) long-term fixed-tariff ESAs with 5-year price-lock clauses negotiated at the outset, (b) solar PPA integration where the charging station procures power at ₹3.50-4.00 per unit from an on-site 20kW to 50kW solar canopy, reducing DISCOM dependency, and (c) battery-energy-storage integration to shift 30% of charging load to off-peak hours. The third risk is protocol obsolescence: CCS2 is emerging as the dominant fast-charging standard in India (aligned with European norms), but the Bharat EV Charger Standard (based on GB/T for DC) and emerging Megawatt Charging System for commercial vehicles create fragmented-protocol risk that could strand CCS2-only chargers.

KAMRIT's DPR mandates dualprotocol or modular-charger procurement (upgradeable via software at marginal cost) to preserve asset relevance through 2030. Sensitivity analysis across a ±200 basis point interest rate shock and a 15% CapEx overrun scenario confirms the project remains NPV-positive under all combinations within the 2.4-4.7 year payback envelope.

Risk matrix

Category-typical risks plotted by impact and probability. Hover a numbered dot to see the risk.

Tariff regime change: impact 3/3, probability 2/3 1 Land acquisition delay: impact 3/3, probability 2/3 2 Grid evacuation availability: impact 2/3, probability 2/3 3 PPA counterparty default: impact 3/3, probability 1/3 4 Module / equipment price swing: impact 2/3, probability 3/3 5 Probability → Impact → Low Medium High High Medium Low
1. Tariff regime change
2. Land acquisition delay
3. Grid evacuation availability
4. PPA counterparty default
5. Module / equipment price swing

How to engage with KAMRIT on this report

KAMRIT offers three engagement tiers tailored to the decision stage of the project. Pick the tier that matches what you actually need: pricing, scope, and turnaround are summarised in the sidebar.

Key market drivers

  • India 500 GW renewable target by 2030
  • PLI scheme for advanced manufacturing
  • ALMM domestic preference enforcement
  • PM Surya Ghar Yojana driving rooftop demand

Competitive landscape

The Indian ev charging network (small scale) market is sized at ₹2,395 crore in 2026 and is on a 34.1% trajectory to ₹18,672 crore by 2033. Ola Electric, Ather Energy and Tata Motors EV hold the leading positions , with Mahindra Electric, TVS Motor (iQube), Hero Electric, Bajaj Auto (Chetak) also profiled in this DPR. The full report benchmarks the new entrant's CapEx (₹1.2 crore - ₹21 crore) and unit economics against the listed-peer cost structure, identifies the specific competitive gap a 2.4 - 4.7-year-payback project can exploit, and includes channel-share and pricing-position analysis. Click any name to open its live profile, current stock price, and analyst note.

Ola Electric Ather Energy Tata Motors EV Mahindra Electric TVS Motor (iQube) Hero Electric Bajaj Auto (Chetak)

What's inside the EV Charging Network (Small Scale) DPR

The EV Charging Network (Small Scale) DPR is a 161-page PDF (Tier 2 also ships an Excel financial model) built around a small-MSME entrant assumption. It covers cell-to-module flow, ALMM eligibility, PPA structuring, grid synchronisation, balance-of-system selection, and module-bankability documentation. The financial side runs the full project economics for ₹1.2 crore - ₹21 crore CapEx: line-itemised CapEx with vendor quotes, OpEx build-up by cost head, 5-year revenue projection by SKU and channel, P&L / balance sheet / cash flow, ROI, NPV, IRR, working-capital cycle, break-even, three-scenario sensitivity, and the Means of Finance recommendation. Payback of 2.4 - 4.7 years is back-tested against the listed-peer cost structure of Ola Electric and Ather Energy.

Numbers for this EV Charging Network (Small Scale) project

Market, operating, and project economics at a glance

A focused view of the numbers that decide this small-MSME project. The Bankable DPR breaks each of these down into the full state-by-state and vendor-by-vendor schedule.

India EV Charging Infrastructure Market Size FY2026

₹2,395 crore

Current market size, representing the addressable opportunity for all EV charging infrastructure deployments across India

India EV Charging Infrastructure Market Forecast 2033

₹18,672 crore

Projected market size at 34.1% CAGR, driven by electric two-wheeler, three-wheeler, and personal EV volume growth

Project CapEx Range

₹1.2 crore - ₹21 crore

Capital expenditure envelope for small-scale EV charging network, covering 5-50 charger installations with electrical infrastructure

Projected Payback Period

2.4 - 4.7 years

Payback period ranges from fast-charging highway sites (2.4 years) to slow-charging workplace sites (4.7 years) depending on site typology and utilisation

AC Slow/Fast Charger Cost per kW (Indian Made)

₹15,000 - ₹35,000 per kW

7.4kW to 22kW chargers from Exicom and ChargeZone India priced in this band; Bharat DC001 15kW DC fast chargers at ₹4.5-6 lakh per unit

Average EV Charging Tariff (AC Fast)

₹6.50 - ₹8.00 per kWh

End-user tariff including GST for AC fast charging at commercial sites; DC fast charging commands ₹8.50-12.00 per kWh premium for faster dispensing

AC Charger Utilisation Rate (Year 1 Baseline)

55-65%

Operating hours utilisation for AC chargers at commercial sites in Year 1; improves to 70-75% by Year 3 as EV fleet penetration increases

Electricity Cost as % of Operating Cost

60-70%

Electricity procurement from DISCOM at EV-special tariffs (₹4.50-7.00 per unit) represents the largest operating cost component, followed by O&M at 15-20% and lease/rent at 10-15%

DC Fast Charger Utilisation Rate (Year 1 Baseline)

40-50%

Lower utilisation than AC chargers in Year 1 due to lower EV volumes on highways, but higher revenue per session compensates; break-even at 40% utilisation

Peak Demand Reduction with Battery Storage

25-35%

LFP battery integration (30-50kWh) at DC fast-charger sites reduces peak-demand charges by 25-35%, the single largest operating cost after electricity procurement

City-specific versions of this report

Setting up in your city? 20 location-specific overlays included.

Each city version of this report layers in state-specific subsidies, the local industrial land cost band, electricity tariff, distance to the nearest export port, and the closest state industrial policy headline: useful when shortlisting a location for your unit.

Table of Contents

20 chapters, 161 pages. Excel financial model included with Tier 2 and Tier 3.

Executive Summary 6 pages
Industry Overview & Market Size 14 pages
Demand & Supply Analysis 12 pages
Regulatory Framework & Licences 18 pages
Plant Setup & Location Strategy 14 pages
Manufacturing / Operating Process 16 pages
Raw Materials & Utilities 12 pages
Machinery & Equipment Specifications 18 pages
Manpower Plan & Organisation Structure 8 pages
Packaging, Branding & Distribution 10 pages
Project Cost (CapEx) & Means of Finance 14 pages
Operating Cost (OpEx) Build-Up 10 pages
Revenue Projections (5-year) 8 pages
Profitability & ROI Analysis 10 pages
Break-Even & Sensitivity Analysis 8 pages
Working Capital Requirements 6 pages
Environmental Clearance & Compliance 10 pages
Risk Assessment & Mitigation 6 pages
Competitive Landscape & Key Players 10 pages
Conclusion & Recommendations 5 pages

FAQs about this EV Charging Network (Small Scale) project

What is the minimum CapEx required to start a small-scale EV charging network in India?

The minimum viable CapEx for a small-scale EV charging network is ₹1.2 crore, which covers approximately 10 slow/fast AC charging points (7.4kW to 22kW) including electrical infrastructure upgrade, charger procurement from Indian manufacturers (Exicom or ChargeZone India), site preparation, and first-year O&M. This quantum enables deployment at a single commercial real estate site (mall basement, office park, or hospitality property) and generates indicative annual revenue of ₹18-22 lakh at 65% utilisation with ₹7.00 per kWh dispensing tariff, against operating costs (electricity, maintenance, lease) of ₹9-12 lakh per annum, yielding net operating income of ₹6-10 lakh and a payback of 4.5-4.7 years.

How does GST apply to EV charging services, and can input tax credit be claimed?

EV charging services attract 18% GST, which is payable on the electricity dispensed to vehicle owners. However, the charging station operator can claim Input Tax Credit (ITC) on GST paid on charger equipment procurement, electrical infrastructure materials, and diesel/battery storage systems used for backup power. ITC is not available on motor fuel (petrol/diesel) used in DG sets, which is a key reason KAMRIT recommends against diesel-backup-dependent site designs. For operators with aggregate turnover below ₹50 lakh, the GST Composition Scheme at 6% (3% CGST + 3% SGST) reduces compliance burden but eliminates ITC eligibility, creating a make-versus-buy decision that depends on CapEx phasing timeline.

What state EV policies offer direct financial support for charging infrastructure promoters?

Gujarat EV Policy 2023 offers ₹10,000 per slow charger and ₹50,000 per DC fast charger as capital subsidy, subject to MNRE certification and minimum 3-year site operation commitment. Maharashtra EV Policy 2023 provides electricity duty exemption for charging stations for 5 years from commissioning, which is worth approximately ₹4-6 lakh per annum in savings for a 15-charger site consuming 25,000 units per month. Delhi EV Policy 2.0 mandates 5% of parking bays in group housing societies to be EV-ready and offers ₹6,000 per charging point for RWAs. Tamil Nadu EV Policy 2023 provides land-conversion fee exemption for charging station sites in industrial areas, relevant for Pithampur and Sriperumbudur corridor sites.

What is the realistic utilisation rate for EV chargers in India's current market, and how long does it take to reach break-even?

Based on operating data from Exicom and ChargeZone India networks across 2024-25, AC slow chargers (7.4kW to 22kW) at commercial sites achieve average utilisation of 55-65% during operating hours (8 AM to 10 PM) in the first year, improving to 70-75% by Year 3 as EV penetration increases. DC fast chargers on highway corridors average 40-50% utilisation in Year 1 due to lower EV volumes but command higher per-session revenue (₹18-25 per session vs ₹12-18 for AC). KAMRIT's base-case financial model assumes 65% Year-1 utilisation for AC and 45% for DC, with break-even reached in Month 28-34 for AC-dominant sites (2.4-2.8 year payback) and Month 36-42 for DC-dominant highway sites (3.0-3.5 year payback).

Can a small-scale EV charging network be integrated with on-site solar under PM Surya Ghar Yojana?

Yes, and this combination significantly improves project bankability. PM Surya Ghar: Muft Bijli Yojana provides central subsidy of up to 40% (capped at ₹10,000) for residential rooftop solar systems, but commercial and industrial (C&I) installations are eligible for accelerated depreciation benefits and net-metering approval rather than direct subsidy. However, when a charging station promoter installs a solar canopy (carport solar above parking bays), the combined solar-plus-charging system can access IREDA's green financing at 25-40bps below market rates, and several state EV policies (Gujarat, Maharashtra, Karnataka) offer additional top-up incentives for solar-charging integrated setups. The optimal sizing is 30-40% solar coverage of total annual charging load, providing daytime energy sovereignty and reducing peak-demand charges that constitute 25-30% of electricity cost for DC fast-charger sites.

BIS certification under IS 17017 (Parts 1, 21, and 23) is mandatory for all EV chargers sold or deployed in India. IS 17017-21 covers AC charging equipment safety, IS 17017-23 covers DC fast charging safety, and IS 17017-1 covers general requirements. Certification involves product-type testing at BIS-recognized laboratories (International Centre for Automotive Technology in Manesar, or Automotive Research Association of India in Pune), submission of test reports through the BIS portal, factory inspection, and grant of licence within 90-120 days. Indian-manufactured chargers from established suppliers (Exicom, ChargeZone India, Bharat Electronics) typically carry existing BIS licences, reducing procurement risk. Importers of Chinese or European chargers must obtain product-type testing in India and ensure compliance with the latest 2024 amendment to IS 17017 regarding cyber-security requirements for networked chargers.

Not sure which tier you need?

Senior Partner Vishal Ranjan or Associate Vidushi Kothari will take a 20-minute scoping call and recommend the right engagement tier for your decision stage. Response within one business day.