IMARC Engineering Strengthens EV Charging Feasibility Study Services for Manufacturing Plants in India

IMARC Engineering has strengthened its EV Charging Feasibility Study services to help manufacturing plants across India evaluate, size, and justify captive charging infrastructure for employee vehicles, material handling fleets, and outbound logistics operations, with a structured methodology connecting load assessment, grid feasibility, and capital planning into a single, decision-ready study. The enhanced offering helps plant owners move from ad hoc charger installations toward a validated infrastructure investment backed by demand data, electrical feasibility, and a clear return on capital.

Electric mobility inside India's manufacturing footprint is expanding faster than most plants' internal power planning has kept pace with. Public charging infrastructure has grown nearly sixfold in three years, rising from about 5,000 stations in 2022 to more than 29,000 by early 2026, yet India's charger-to-EV ratio remains close to one charger for every 235 registered vehicles, well short of the global benchmark of one per 6 to 20 vehicles. This gap makes captive, on-site charging a more dependable route to fleet and workforce electrification than reliance on the surrounding public network.

Connect with IMARC Engineering to commission an EV charging feasibility study for your manufacturing plant: https://www.imarcengineering.com/contact?service=ev-charging-infrastructure-advisory

Why EV Charging Feasibility Has Become a Priority for Manufacturing Plants:

Manufacturing plants are under growing pressure to electrify vehicle fleets, from employee shuttles to forklifts, tugger trains, and outbound delivery trucks, while avoiding the twin risks of undersized infrastructure and stranded capital. Several forces are converging on plant decision-makers.

• Central schemes such as PM E-DRIVE are directing roughly INR 2,000 crore toward over 72,000 charging stations across 50 national highway corridors, with subsidies covering a large share of upstream power infrastructure costs in qualifying cases
• GST on EV chargers and charging stations has been reduced from 18 percent to 5 percent, improving the economics of captive installations
• State-level EV policies in Maharashtra, Tamil Nadu, Karnataka, and Delhi layer manufacturer and infrastructure incentives on top of central schemes
• Fleet operators increasingly favour captive charging over public infrastructure for reliability, predictable costs, and simpler billing through existing plant meters
• Plant electrical systems, sized decades ago for production loads alone, are rarely engineered to absorb new EV charging demand without a formal feasibility assessment

Plants that commission a structured feasibility study before procurement consistently avoid both undersized capacity that cannot support fleet growth and oversized infrastructure that ties up capital without a corresponding utilisation case.

What an EV Charging Feasibility Study Covers:

An EV charging feasibility study is a structured engineering and financial assessment that evaluates a manufacturing plant's vehicle electrification requirements, available electrical capacity, site constraints, and cost of ownership before any charging equipment is procured. It combines fleet demand modelling, electrical load assessment, and financial analysis to determine the right charger mix, capacity, and phasing for a specific plant.

A properly structured study covers:

• Demand modelling across employee vehicles, material handling equipment, and outbound logistics fleets
• Assessment of transformer capacity, load headroom, and utility connection requirements
• Evaluation of AC versus DC charging mix based on vehicle dwell time and duty cycles
• Financial modelling comparing captive charging economics against continued public infrastructure dependence

The Hidden Costs of Reactive EV Charging Infrastructure Planning:

Plants that install chargers reactively, in response to individual vehicle purchases or one-off requests, tend to accumulate infrastructure that neither meets long-term fleet plans nor uses available power capacity efficiently.

• Undersized transformer and feeder capacity forcing costly retrofits as fleet electrification scales
• Charger types mismatched to vehicle dwell time, resulting in bottlenecked shifts or underutilised DC fast chargers, which carry materially higher equipment costs than standard AC units
• Missed eligibility for central and state subsidy windows due to non-compliant documentation at installation
• Safety and statutory compliance gaps against IS 17017 and related charging infrastructure standards
• Charging load added without demand-side coordination, straining plant power factor and peak demand charges

Plants without a feasibility study typically discover capacity constraints only after chargers are ordered, when corrective retrofits cost substantially more than a planning-stage upgrade would have.

India's Manufacturing EV Charging Landscape:

• Captive Charging as the Default Fleet Model - Fleet owning businesses increasingly treat captive, depot-style charging as an internal cost centre funded through existing plant connections, with returns measured in reduced fuel spend
• State Manufacturing Corridors Driving Demand - Tamil Nadu alone accounts for a large share of India's EV production, concentrating fleet charging demand alongside growing hubs in Gujarat, Maharashtra, and Telangana
• Market Scale Expanding Rapidly - India's EV charging station market, valued at roughly INR 6,100 crore in 2025, is projected to grow at a CAGR of close to 28 percent through 2030
• Financing Costs Still a Barrier - Commercial EV and charging infrastructure borrowers face double-digit interest rates, making an internally validated feasibility case essential to favourable project financing
• Grid Readiness Uneven Across Industrial Zones - Distribution capacity, feeder availability, and approval timelines vary across industrial parks, making site-specific electrical assessment a prerequisite rather than an assumption

Why EV Charging Programmes Fail Without Structured Feasibility Planning:

Despite strong policy tailwinds, many plants underdeliver on fleet electrification because of:

• No integrated demand model spanning employee vehicles, internal fleets, and logistics operations
• Charger procurement decided before electrical capacity is validated with the local utility
• Financial cases built on vendor estimates rather than independent load and cost modelling
• Statutory and safety compliance treated as an afterthought rather than a design input
• No phased roadmap connecting near-term deployment to longer-term fleet electrification targets

A Structured Framework for EV Charging Feasibility Studies:

IMARC Engineering applies a systematic methodology to deliver a decision-ready outcome:

1. Stage 1: Fleet and Demand Assessment

Review of current and planned employee vehicle, material handling, and logistics fleet electrification, with dwell time and duty cycle mapping across shifts

2. Stage 2: Electrical and Site Feasibility Evaluation

Assessment of transformer capacity, feeder headroom, and utility connection requirements, alongside site layout review for charger placement and vehicle circulation

3. Stage 3: Charger Mix and Capacity Planning

AC versus DC charger selection based on validated dwell time and load data, right-sized against near-term and expansion-stage fleet plans

4. Stage 4: Financial and Incentive Modelling

Capital and operating cost modelling, including PM E-DRIVE and state subsidy eligibility, compared against continued public charging dependence

5. Stage 5: Implementation and Compliance Roadmap

Phased rollout plan aligned to fleet electrification milestones, with statutory and safety documentation support under IS 17017 and related standards

Learn more about IMARC Engineering's EV Charging Infrastructure Advisory services: https://www.imarcengineering.com/services/ev-charging-infrastructure-advisory

Industry Applications Across Manufacturing Sectors:

1. Automotive and Auto Component Manufacturing - Feasibility studies for logistics fleet and employee charging at plants within established EV manufacturing corridors
2. Pharmaceutical and Chemical Manufacturing - Charging infrastructure planning that accounts for cleanroom and process power priorities alongside fleet electrification
3. FMCG and Food Processing - Depot-style captive charging for temperature-sensitive distribution fleets on tight delivery windows
4. Heavy Engineering and Industrial Equipment Manufacturing - Feasibility assessment for material handling fleet electrification within MIDC, GIDC, and SIDCO zone facilities
5. Warehousing and Logistics-Linked Manufacturing - Charging infrastructure sized for high-frequency outbound fleet turnaround

Market Trends Reshaping EV Charging Feasibility Planning (2026-2028):

• Demand-Led Sizing Over Generic Benchmarks - Plants are commissioning validated load studies instead of relying on generic per-vehicle charger ratios
• Rise of Captive-Public Hybrid Models - Plants are opening surplus off-hours charging capacity to visiting fleets and vendors to improve utilisation
• Grid Integration and Smart Charging - Draft national electricity policy proposals encourage demand-responsive charging to ease peak load pressure on plant connections
• Subsidy-Aware Project Structuring - Feasibility studies increasingly build PM E-DRIVE and state incentive eligibility into the project structure from the outset
• Financing-Linked Feasibility Documentation - Lenders increasingly require independent feasibility studies before extending project finance for fleet electrification

How IMARC Engineering Supports EV Charging Feasibility Excellence:

IMARC Engineering delivers end-to-end EV charging feasibility study services for manufacturing plants.

• Integrated demand modelling across employee, material handling, and logistics fleets
• Electrical and site feasibility evaluation with utility coordination support
• Charger mix and capacity planning aligned to validated dwell time data
• Financial modelling incorporating central and state subsidy eligibility
• Phased implementation roadmaps and statutory compliance documentation support

The focus is on building a feasibility case that scales with the plant's fleet electrification trajectory, protecting capital efficiency while reducing retrofit risk.

As manufacturing companies continue to electrify employee transport, internal logistics, and commercial fleets, EV charging infrastructure is becoming an integral part of industrial utility planning. Organizations that validate charging demand, electrical capacity, and long-term expansion requirements before installation will be better positioned to optimize investment, support fleet growth, and reduce future infrastructure upgrades.

Explore Related Insights:

Electric Vehicle Manufacturing Plant in India: https://www.imarcengineering.com/blog/how-to-set-up-an-electric-vehicle-manufacturing-plant-in-india

About Us:

IMARC Engineering is an India-focused engineering and industrial consulting firm supporting manufacturers and industrial developers across India, from feasibility studies and design to execution and commissioning. Through its EV Charging Feasibility Study services, it helps manufacturing plants build validated, cost-efficient charging infrastructure aligned to fleet electrification goals.

Contact Us:

IMARC Engineering
Phone: +91-120-433-0800
Email: sales@imarcengineering.com
India: C-130, Sector 2, Noida, Uttar Pradesh 201301
LinkedIn: https://www.linkedin.com/showcase/imarc-engineering/

This release was published on openPR.