Power & clean energy, EV &
hydrogen infrastructure, data centers,
heavy process industries, defence,
marine & offshore, railways,
metals & mining, chemicals &
pharma, cement & building
materials, oil & gas, water &
utilities.
X₂Go bridges hydrogen production and
end use, storing hydrogen and releasing
it for industrial, mobility and
power-generation applications,
including backup power and off-grid use.
Yes, with proper design; hydrogen has
been handled safely in industry for
decades. X2GO's low-pressure,
solid-state approach further reduces
the explosion risk associated with
high-pressure tanks and the cryogenic
burn risk associated with liquid
hydrogen.
Instead of storing hydrogen as a
high-pressure gas (350–700 bar) or a
cryogenic liquid (-253°C), X2GO bonds
it within a solid-state material at
low pressure and releases it on demand
using waste heat, avoiding high-pressure
vessels and cryogenic handling entirely.
Hydrogen is chemically bonded into a
solid material rather than compressed
or liquefied, and released on demand
by applying heat, allowing safe storage
at low pressure inside a standard
container.
Yes, the system is fully automated
with embedded IoT and industrial
connectivity, and is AI-ready for
real-time monitoring and predictive
analytics.
A hydrogen-to-power generation system
built around a fuel cell that converts
hydrogen into electricity, with water
and heat as the only by-products,
designed as a clean, plug-and-play
alternative to diesel generators.
A device that combines hydrogen and
oxygen to generate electricity through
an electrochemical reaction, producing
only water and heat as by-products,
with no combustion involved.
Solid-state storage is generally
considered the safest option, since
it operates at low pressure and
near-ambient temperature, avoiding
the high-pressure risk of compressed
gas and the cryogenic risk of liquid
hydrogen.
Hydrogen is classified by how it's
produced: grey (natural gas, most
common today), blue (grey process with
carbon capture), green (renewable-powered
electrolysis, zero emissions), and less
common types like brown and pink.
Yes, they're especially valuable where
grid access is unreliable or diesel
logistics are difficult, since hydrogen
can be stored and transported to sites
without pipeline infrastructure.
Up to 200 kg of hydrogen (around
6,600 kWh energy equivalent), with a
peak flow rate of up to 60 kg/hour.
The current model is rated at 20 kVA
(peak 25 kVA), with 16 kW of continuous
power output.
Yes. Solid-state hydrogen storage has
minimal self-discharge, unlike liquid
hydrogen, which loses roughly 1–3% per
day to boil-off. This makes it well
suited for long-duration or seasonal
storage.
Runtime scales with the connected
hydrogen storage, with up to 8 hours
of backup available and responds to a
power cut in under 10 seconds.
No combustion means no CO₂, NOx, or
particulate emissions; just water
vapour. It also runs far quieter than
diesel and needs no fuel pipelines or
foundations to install.
The system is fully containerised and
plug-and-play; it typically needs a
level pad and standard utility
connections, with no fuel pipelines
or major civil works required.
Requirements vary by location and
scale. Low-pressure solid-state
storage generally falls under a
lighter regulatory bracket than
high-pressure compressed gas, but
local fire and electrical approvals
are still typically needed.
Green hydrogen production in India
costs roughly ₹300–560/kg (about
$3.5–6.7/kg), against grey
(fossil-based) hydrogen at ₹150–200/kg.
Though this varies by production
method, scale and region, and is
expected to fall as the market matures.
It depends on site-specific factors
like diesel offset, run-hours and
local hydrogen sourcing cost, so
there's no single number that applies
everywhere. Sites with heavy diesel
use, long daily run-hours, high
theft/pilferage losses, or CPCB-
restricted locations where diesel
gensets face penalties or bans see
the fastest payback.
Mainly hydrogen sourcing/refuelling
and routine maintenance. There's no
diesel-style fuel delivery, spillage
or theft risk, and fuel cell systems
have far fewer wearing parts than a
combustion engine, so scheduled
servicing is typically less frequent
and less expensive than the annual
overhauls diesel gensets need.
Upfront costs for hydrogen
infrastructure are typically higher
than diesel today, but operating costs
are lower thanks to reduced maintenance
and fuel logistics. The total cost
gap is narrowing as hydrogen prices fall.
Yes, India's National Green Hydrogen
Mission includes incentive schemes
to support adoption; specifics vary
and are worth verifying at the time
of purchase.