EV Charging Accessibility and Safety in India: Designing for Every Driver (2026)

Short answer: India's charging network is being built for a driver who owns a house with a garage, drives a car, and charges in daylight. That describes a minority of Indian vehicle owners. The people it excludes are renters without dedicated parking, two- and three-wheeler riders, women charging after dark, disabled drivers, and everyone outside the major metros.

These are not edge cases. Collectively they are the majority of the market, and designing for them is a commercial opportunity rather than a charitable one.

The renter and shared-parking problem

Nearly all charging guidance assumes a dedicated parking space the driver controls and can wire. A great many Indian vehicle owners have no such thing.

Renters generally cannot make permanent electrical modifications, and even where a landlord agrees, the tenant funds an improvement they cannot take with them. Residents of buildings with unassigned parking cannot install a fixed charger anywhere in particular. In dense older neighbourhoods, street parking is the norm. And many two-wheeler owners have no allocated parking at all.

For all of these, home charging is not slow or inconvenient. It is unavailable. That converts EV ownership from a straightforward proposition into a daily logistical problem, and it is the single largest structural barrier to adoption in urban India.

What addresses it: shared residential charging in society parking rather than individual installations; kerbside charging in dense neighbourhoods; charging at destinations people visit routinely such as workplaces and markets; and subscription models that give predictable access without requiring ownership of a charger.

These are also, not coincidentally, the deployments with the most reliable repeat demand, because they serve people who must charge somewhere every day rather than occasionally.

Designing for safety after dark

A significant share of charging happens at night, and a charging session means standing beside a vehicle in a car park for twenty minutes to several hours. Whether that feels safe determines whether people use a site, and it affects women disproportionately.

This is rarely treated as a design requirement, and it should be. A charging point in an unlit basement corner, at the far end of an empty lot, or behind a building may be electrically perfect and practically unusable for a large part of the population.

What good design looks like:

• Lighting at the charging bay itself, not merely somewhere in the car park.
• Visibility from occupied areas, so a person charging is within sight of staff, a shop, or passing traffic.
• Proximity to amenity, so the wait can be spent somewhere with people rather than beside the vehicle.
• Working cameras and clear signage that they are operating.
• Avoiding isolated placement, including the common pattern of putting chargers in the least commercially valuable corner of a site.
• Emergency contact information displayed physically at the unit, not only in an app.

The commercial argument is straightforward: a site that feels unsafe loses roughly half its potential customers, and the design changes that fix it are inexpensive relative to the charging hardware.

Physical accessibility

Charging equipment is frequently designed without much thought for users with limited mobility, strength or reach.

DC charging cables in particular are heavy and stiff, and manipulating one into a vehicle inlet requires more physical capability than is often assumed. Screens mounted at standing eye level are unusable from a wheelchair. Bays sized to the minimum leave no room for a door to open fully or for a ramp to deploy. Kerbs and steps between the parking bay and the charger create barriers that are trivial to avoid at design stage and expensive to fix later.

Practical measures: at least one bay per site sized generously with clear space alongside; controls and screens reachable from a seated position; step-free access between vehicle and charger; cable management that does not require lifting from ground level; and clear ground markings that keep the access space free.

None of this is costly when included in the original layout. All of it is expensive to retrofit, which is a strong argument for getting it right at the first attempt.

The vehicle categories that get ignored

Public charging infrastructure in India is overwhelmingly designed around four-wheelers, which inverts the actual composition of the vehicle fleet.

Two-wheelers dominate personal mobility by a wide margin, and their electrification is well advanced. Three-wheelers are the most electrified category of all. The riders and drivers of these vehicles are also, on average, less likely to have private parking with power access, which means their dependence on public infrastructure is greater, not less.

Yet charging sites frequently offer no provision for them at all. A site with four CCS2 connectors and nothing for a scooter is serving the smaller half of the market.

The remedy is cheap. Low-power points for two-wheelers cost a fraction of car charging equipment, need very little electrical capacity, and can be installed in numbers on an ordinary connection. A site adding a bank of them typically multiplies the vehicles it can serve for a marginal increase in cost.

For delivery riders in particular, whose income depends on continuous operation and who often have nowhere at home to charge, accessible mid-shift charging is not an amenity but a working necessity.

Beyond the metros

Charging deployment has concentrated in major cities and on the intercity corridors between them, which is rational for early-stage networks and leaves a large gap.

Smaller cities and towns face a familiar circularity: few EVs, so little charging investment; little charging, so few people buy EVs. Breaking it requires infrastructure to arrive slightly ahead of demand, which is precisely what commercial logic discourages.

Two things make it more tractable than it appears. First, commercial vehicles in smaller towns often have highly predictable routes and depots, which makes captive charging viable where public charging is not. Second, low-power AC infrastructure is cheap enough that the risk of building slightly early is modest, unlike a DC installation with a grid upgrade.

Operators looking for less contested markets should note that competition in these locations is minimal, and early presence tends to build durable local loyalty in ways that are hard to achieve in saturated metros.

Information and payment barriers

Access is not only physical. A charger nobody can find, understand or pay for is inaccessible in practice.

Discoverability matters enormously. A charger absent from the apps drivers use is invisible regardless of location quality, and listings that are inaccurate about availability actively damage trust.

Language is routinely overlooked. Interfaces available only in English exclude many users in a country with enormous linguistic diversity, and the exclusion falls hardest on exactly the commercial drivers who use charging most.

Payment friction suppresses use. Requiring an app download, account registration and card details before a first session loses a substantial share of casual users. UPI acceptance without registration removes that barrier almost entirely and suits the small-value, high-frequency transactions typical of two- and three-wheeler charging.

Clarity of pricing builds trust. Displayed rates, visible session metering and a clear receipt matter especially to price-sensitive commercial drivers, who compare carefully and share information through informal networks.

The improvised charging problem

Where accessible charging does not exist, people do not stop charging. They charge unsafely, and the pattern is consistent enough to be predictable.

Extension cables are run from flats and shops across pavements to vehicles parked on the street. Batteries are removed and carried indoors to charge in living rooms, corridors and stairwells. Unbranded chargers of unknown provenance are bought because they are cheap. Vehicles are charged in enclosed spaces without ventilation. Informal arrangements spring up where someone sells power from a domestic connection at an arbitrary rate.

Each of these carries genuine fire and electrocution risk, and incidents involving electric vehicles in India overwhelmingly trace back to exactly this kind of improvisation rather than to the vehicles themselves.

The important reframing is that this is a supply problem, not a behaviour problem. People improvise because the alternative does not exist. Every properly installed, accessible, affordable charging point removes some of that improvisation, and the effect is largest precisely in the underserved segments discussed above.

For housing societies, municipal bodies and employers, this is usually a more persuasive argument than convenience. A proposal framed as fire safety, replacing dangerous practice already happening on the premises, tends to secure approval that a proposal framed as an amenity does not.

A practical checklist for site operators

Concrete measures, most of which cost little when planned rather than retrofitted:

• Place chargers where people are, not in the least commercially valuable corner of the site.
• Light the bay itself to a level where a person feels comfortable standing there alone.
• Size at least one bay generously, with clear space alongside and step-free access.
• Mount controls within reach from a seated position.
• Add low-power two-wheeler points wherever the location attracts riders. The marginal cost is small and the addressable vehicles multiply.
• Accept UPI without registration for casual users.
• Display pricing physically and show session energy clearly.
• Provide shelter from sun and monsoon; drivers frequently wait with their vehicle.
• Support at least one regional language alongside English in the interface and signage.
• Keep listings accurate on charging apps, especially availability. An inaccurate listing damages trust more than an absent one.
• Publish an emergency contact physically on the unit, not only in an app.
• Keep the bays clear with proper markings, so non-charging vehicles do not block access.

Why this is commercially rational

Every point above can be read as fairness, and it is. But each also describes unserved demand.

Renters without parking need charging every single day and currently have nowhere reliable to get it. Two- and three-wheeler drivers charge daily rather than occasionally, making utilisation habitual and predictable. Women represent a large share of drivers whose site choice is materially constrained by safety, so sites that address it capture disproportionate share. Smaller cities have almost no competition.

These are the segments with the most acute need and the least served supply, which in most markets would be the obvious place to build.

What policy could change

Several barriers described here are not commercial problems that operators can solve alone; they need rules to shift.

Building norms that require EV-ready provisioning in new residential and commercial construction are the highest-leverage intervention available, because conduit and spare capacity cost very little at construction and are expensive to add later. Model byelaws have moved in this direction, but enforcement varies widely.

Society approval processes remain the practical bottleneck for a large share of would-be EV owners. Clear, enforceable direction that residents may install at their own parking, with defined timelines for a decision, would unlock a substantial amount of latent demand.

Kerbside charging permissions barely exist as a framework in most Indian cities. For dense neighbourhoods where street parking is normal, this is the only realistic route to residential charging, and it needs municipal rules covering permitting, metering and space allocation.

Tenant protections allowing renters to install or request charging, in the way some jurisdictions elsewhere have legislated, would address a group currently excluded almost entirely.

Standards for accessible design in publicly funded or publicly accessible charging would prevent a generation of infrastructure being built without it, which is cheaper than retrofitting later.

Operators have a direct interest in these changes, since each one enlarges the addressable market rather than redistributing it.

Key takeaways

• Charging design assumes private parking, which a large share of Indian vehicle owners do not have.
• Shared residential, kerbside and destination charging address the renter problem directly.
• Lighting, visibility and proximity to people determine whether a site is usable after dark.
• Physical accessibility is cheap to design in and expensive to retrofit.
• Two- and three-wheelers dominate the fleet but are largely ignored by public charging design.
• UPI without registration removes the biggest payment barrier for high-frequency small transactions.
• The underserved segments are also the ones with the most predictable daily demand.

A charging network that works only for people with private garages will serve a small fraction of India's drivers. The infrastructure that serves everyone else is cheaper to build, faces less competition, and meets demand that recurs every day rather than occasionally.