National Resilience | Clean Mobility Sovereignty | Strategic Preparedness
The Sector at a Glance
Electric mobility systems encompass the vehicles, energy storage and infrastructure that together allow transport to run on electricity rather than imported liquid fuels. The sector covered under this tab extends across electric two-wheelers, three-wheelers, cars, buses and commercial vehicles; traction batteries and their cells, chemistries and battery management systems; motors, power electronics and controllers; public, private and depot charging infrastructure; battery swapping stations and their standards; and the grid integration, software and payment systems that tie them together.
The scope of this tab extends across the full battery and infrastructure value chain: raw material sourcing and processing, cell manufacturing, pack assembly and thermal management, safety testing and certification, deployment of charging and swapping networks, operations and maintenance, second-life use of batteries in stationary storage, and recycling for material recovery. It is the indigenous control of this chain, and particularly of cells and their materials, that determines whether electric mobility reduces Bharat's strategic dependency or merely shifts it from oil to batteries.
Why This Sector Is Critical
Transport is the lifeline of the economy, and its dependence on imported crude oil has long been one of Bharat's most significant strategic exposures to price shocks and supply disruption. Electrification offers a path to energy security, cleaner air in cities and lower emissions. As fleets electrify, however, charging and swapping networks become critical infrastructure in their own right: public transport, freight, emergency services and last-mile delivery will all depend on them, and their resilience during grid stress, floods, heatwaves or cyber incidents becomes a matter of continuity.
The structural vulnerability lies in the battery. Cell manufacturing, and the processing of lithium, nickel, cobalt, graphite and other materials, is concentrated in a small number of countries, so that a nation that electrifies without domestic cell and material capability risks exchanging one external dependency for another. Battery safety, thermal incidents, interoperability of swapping standards, the cyber security of connected chargers and the end-of-life handling of large volumes of spent batteries are further vulnerabilities. If these are not addressed, a disruption in cell supply or a failure of charging networks could stall public and freight transport alike.
The Bharat Context
Bharat has emerged as one of the most dynamic electric mobility markets, led by two-wheelers, three-wheelers and electric buses, and has pioneered battery swapping for light vehicles at scale. Domestic manufacturers and start-ups are active in vehicles, packs, chargers and swapping networks. The gaps are in cell manufacturing at scale, in the processing of battery materials, in the density and reliability of public charging outside major cities, in heavy commercial vehicle electrification, in interoperable standards, and in organised recycling capacity.
The policy environment is supportive. The FAME India scheme and its successor PM E-DRIVE, the PLI scheme for Advanced Chemistry Cell battery storage, the PLI scheme for automobiles and auto components, PM e-Bus Sewa, the charging infrastructure guidelines of the Ministry of Power and the Battery Waste Management Rules together address demand, manufacturing, infrastructure and circularity, within the frame of Make in India and Aatmanirbhar Bharat. BIS and automotive testing agencies are developing safety and interoperability standards, including battery safety requirements, while the National Critical Mineral Mission addresses upstream materials. What remains missing is an integrated view connecting cell sovereignty, grid readiness, infrastructure resilience and recycling into one national strategy; and this is the research-to-resilience gap that BAP-I seeks to address through this tab.
Importance of the Sector
Economy
Electric mobility can reduce the oil import bill, improve the trade balance and lower the operating cost of transport for households, fleets and public transport operators. A domestic cell and battery industry creates a new manufacturing base whose output also serves stationary energy storage for renewable integration. Charging and swapping networks open new businesses in energy services, real estate, software and payments, while recycling recovers valuable materials. The economic gain, however, depends on localisation: if cells and materials remain imported, much of the value created by electrification will accrue abroad. It is argued that the economics of the sector must therefore be read alongside its supply chain.
Employment
The sector creates employment across manufacturing, infrastructure and services: cell and pack production, motor and power electronics assembly, quality and safety testing, electrical installation and maintenance of chargers, operation of swapping stations, fleet management, software development and battery recycling. The large population of mechanics and service technicians trained in internal combustion vehicles needs reskilling in high-voltage systems and diagnostics, a transition that national skilling programmes and automotive skill bodies will have to manage. Done well, the transition can create more and better jobs than it displaces; done poorly, it can leave a skilled workforce stranded.
Entrepreneurship
Electric mobility has been one of the most active spaces for Bharat's entrepreneurs. Start-ups and MSMEs work in vehicle design, battery packs and battery management systems, chargers, swapping networks, fleet electrification, telematics, energy management software and recycling. The modular nature of swapping and light electric vehicles lowers entry barriers. Challenges remain in access to quality cells, testing and certification costs, standards uncertainty and financing for vehicles and infrastructure. Clear interoperability standards and stable policy would allow smaller firms to build durable businesses on shared infrastructure.
Partnership
The sector requires partnership between automotive manufacturers, cell makers, power distribution companies, urban transport authorities, oil marketing companies that host charging points, real estate owners, financiers and recyclers. Standard-setting bodies and testing agencies must work with industry to ensure safety and interoperability. International partnerships in battery chemistries, materials and equipment can accelerate localisation, provided that technology absorption and diversified material sourcing are built in. BAP-I positions itself as a convening platform for these stakeholders around shared research questions.
Research Focus Possibilities
BAP-I invites original research articles, policy papers, technical reports, diagnostic assessments, case studies and white papers across the following indicative research streams. The list is open-ended; contributions that connect a new question to the resilience objective of this tab are equally welcome.
A. Battery Sovereignty and Supply Chain
- Mapping cell, cathode, anode, electrolyte and separator dependencies, with risk modelling for supply disruption and export controls
- Alternative chemistries such as sodium-ion and lithium iron phosphate and their suitability for Bharat's climate, use cases and material base
- Progress and constraints of domestic Advanced Chemistry Cell manufacturing under national incentive schemes
B. Charging and Swapping as Critical Infrastructure
- Grid impact of charging and swapping networks and models for smart charging and distribution network planning
- Resilience of charging infrastructure to heatwaves, floods and power outages, and its role in emergency transport continuity
- Cyber security of connected chargers, swapping stations and vehicle data systems
- Interoperability and standards for battery swapping across vehicle makers and operators
C. Safety, Standards and Circularity
- Battery safety in Bharat's operating conditions: thermal management, testing protocols and incident analysis
- Recycling and material recovery capacity under extended producer responsibility, and second-life use in stationary storage
- Effectiveness of demand incentives and their transition to self-sustaining markets
D. Fleets, Enterprise and Skills
- Electrification pathways for public buses, freight and last-mile delivery fleets, including financing models
- Rural and small-town charging access and the role of local enterprises
- Reskilling of automotive service workers for electric vehicles and high-voltage systems
- Start-up participation in batteries, chargers and energy software: barriers and enabling measures
Advanced Energy Storage Systems
This tab also covers energy storage beyond vehicles: grid-scale battery storage, pumped hydro storage, emerging chemistries such as sodium-ion and solid-state cells, advanced chemistry cell manufacturing, battery management and safety, second-life use and recycling, and the supply of lithium, cobalt, nickel and graphite. Storage is what allows renewable power to serve the grid around the clock, and its security is now part of energy security.
- Domestic cell manufacturing capacity and the progress of production-linked incentives
- Grid-scale storage planning, pumped hydro potential and market design for storage services
- Alternative chemistries that reduce dependence on scarce imported minerals
- Battery safety standards, recycling and recovery of critical materials
Who Can Participate
This tab invites participation from automotive and two-wheeler manufacturers, cell and battery pack makers, charging and swapping network operators, power distribution companies, state transport undertakings and urban transport authorities, automotive testing and certification agencies, BIS, IITs, IISc, NITs and CSIR laboratories working on energy storage and power electronics, battery recyclers, financiers and fleet operators, industry associations, start-ups, policy think tanks and individual researchers with domain expertise. Contributions from practitioners, policymakers and academics carry equal standing within the BAP-I research framework.
The Resilience Objective
Every contribution under this tab must serve one purpose: strengthening Bharat's capacity to electrify its transport on a foundation of domestic batteries, resilient charging and swapping networks and a circular materials economy. BAP-I treats research as the instrument through which electric mobility becomes a source of energy security rather than a new form of dependency.
