Ather Konarc’s AirWalk Feature Makes Moving the Scooter Feel Almost Effortless

Ather’s newly launched Konarc electric scooter introduces AirWalk, a motor-assisted feature designed to make manually moving the scooter easier in tight parking spaces or while manoeuvring it at very low speeds. Instead of requiring the rider to physically push or pull the scooter with all its weight, the system detects the manual movement and uses the electric motor to provide assistive torque in the same direction. The feature is available on the higher Konarc variants.

Imagine trying to pull an electric scooter out of a tightly packed parking space. The engine is switched off, there is barely enough room to turn the handlebar and the rider has to push a machine weighing more than 125 kg using nothing but their legs.

That ordinary parking problem is what Ather is trying to solve with one of the more unusual features on its new Konarc electric scooter.

Called AirWalk, the system allows the scooter to assist the rider while it is being manually pushed or pulled. Rather than behaving like a conventional autonomous parking system, AirWalk works with the rider’s physical movement, adding motor torque in the same direction.

The result is a deceptively simple feature that could make one of the most annoying parts of everyday scooter ownership considerably easier.

What Exactly Is AirWalk?

AirWalk is essentially motor-assisted manual manoeuvring.

When the Konarc’s motor is switched on and the scooter detects that the rider is pushing or pulling it manually, the system activates the electric motor and provides assistive torque in that direction. Ather says no separate setting or activation procedure is required each time.

This is different from simply using a normal reverse mode.

With a conventional scooter, moving a parked vehicle often means supporting its weight and physically pushing it. On a large electric scooter, that can become surprisingly difficult, particularly on an incline or when the rider needs to make several small corrections.

AirWalk uses the scooter’s own propulsion system to reduce that physical effort.

The Motor Becomes the Rider’s Assistant

The technology is interesting because it repurposes a component that normally exists to propel the scooter at road speeds.

An electric motor can generate controlled torque even when the vehicle is moving extremely slowly. The challenge is determining when the rider intends to move the scooter manually and how much assistance should be provided.

Ather’s AirWalk system is designed around that interaction.

When the rider begins pushing or pulling the scooter, the system detects the movement and provides torque in the corresponding direction. The assistance is therefore intended to complement the rider rather than replace them.

This makes AirWalk particularly useful for small movements rather than normal riding.

Why Parking Is the Perfect Use Case

The feature becomes most useful in places where a scooter cannot simply be ridden away.

Consider a crowded basement parking area. The scooter may be parked nose-first against a wall, surrounded by other vehicles. The rider needs to move it backwards, straighten the handlebar and then turn it toward the exit.

Doing that manually can require considerable effort.

The same problem appears when parking on a slope, positioning the scooter inside a narrow garage or moving it around after a puncture.

Ather itself describes park-assist technology as being intended to eliminate the physical effort involved in manoeuvring scooters in confined spaces.

AirWalk takes that philosophy a step further by assisting the physical walking movement itself.

It Is Not an Autonomous Self-Driving System

The name AirWalk could make the feature sound more dramatic than it actually is.

The Konarc is not walking by itself.

There is no autonomous navigation system deciding where the scooter should go. The rider remains responsible for steering and controlling the vehicle.

Instead, the electric motor provides a controlled amount of assistance when the system detects manual movement. Ather’s description specifically says the motor provides assistive torque in the same direction as the manual push or pull.

That distinction is important because the engineering challenge here is not autonomous driving. It is making human-machine interaction smoother at extremely low speed.

AirWalk Is Part of a Larger Technology Package

AirWalk is only one of the features Ather has introduced with the Konarc.

The new scooter is based on Ather’s EL platform, which the company has developed around everyday usability, serviceability and scalability.

The Konarc also introduces features such as AutoHold, Park Assist reverse, connectivity functions and, on higher variants, technologies including MagicKey and AutoPop.

The scooter is also Ather’s first production model built around the new EL platform and uses a metal body with a 1,352 mm wheelbase.

The broader strategy is clear: Ather is trying to make technology useful not just while the scooter is moving, but throughout the ownership experience.

Ather Konarc Is Targeting Everyday Practicality

The Konarc starts at ₹99,999 ex-showroom in Bengaluru, with the initial S variants offering claimed IDC ranges of 100 km, 125 km and 161 km. A 200 km version and higher-specification Z variants are also part of the planned lineup.

The scooter has a 31-litre boot, a 14-inch front wheel and up to 100 mm of rear suspension travel. Ather is also promising servicing once every 12 months or 10,000 km, whichever comes first.

These specifications show where the Konarc sits in Ather’s strategy.

Rather than making every feature about speed or acceleration, the company is increasingly focusing on the small inconveniences that riders encounter every day.

The Clever Part Is How Little the Rider Has to Think About It

Perhaps the most interesting aspect of AirWalk is that it does not require the rider to learn a complicated operating procedure.

According to Ather, AirWalk remains active whenever the motor is on. When the system detects the manual push or pull, it responds automatically.

That is an important principle in vehicle engineering.

The best assistance technologies are often the ones that disappear into the background. Instead of asking the rider to select a mode, press multiple buttons or understand how the system works, the vehicle recognises the situation and provides help at the appropriate moment.

In this case, the result is a scooter that can feel substantially easier to move around when the rider is not actually riding it.

A Small Feature With a Practical Engineering Idea Behind It

AirWalk may not be as headline-grabbing as a massive battery, futuristic dashboard or high-performance motor.

But it demonstrates an increasingly important direction in electric-vehicle design.

As electric scooters become heavier because of batteries, manufacturers are having to rethink how users interact with them when they are stationary. A motor that normally consumes energy to move the vehicle at 40 or 80 km/h can also be used to provide tiny amounts of precisely controlled torque at walking speed.

That turns the propulsion system into something more than a source of forward motion.

It becomes an assistance mechanism.

And for a rider struggling to move a heavy scooter through a cramped parking space, that may be one of the most useful applications of electric-motor technology.