This is What's Next®

The Responsible
Hyperscaler®

We did not set out to improve the data centre. We set out to rethink it.

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AMD · Open compute

AMD Helios,
rackscale.

Helios rackscale runs alongside Vera Rubin, under the same roof, on the same 800 VDC power and the same direct-to-chip cooling.

AMDRackscaleOpen stack
02, Open

The way out is
part of the offer.

Where a model was written for CUDA, we move it onto ROCm, tune it, check it against the original, and hand it back. Nothing about the choice is a trap.

ROCmNo transfer costChoice
03, Power

Same 800 VDC.
Same liquid cooling.

Instinct MI on the Infinity Fabric interconnect, on the same 800 VDC power and the same direct-to-chip liquid cooling we built for Vera Rubin. No compromise for choosing open.

800 VDCLiquid cooledInstinct MI
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NVIDIA · India first

India's first
Vera Rubin
rackscale system.

Purpose-built for the workloads that ask the most of this decade.

NVIDIAVera RubinIndia First
02, Power

Engineered for
800VDC.

India's first DC built around 800V direct current. Higher voltage, fewer conversions, and a topology designed natively for 660 kW capable AI racks.

800VDCIndia FirstAI-Native
03, Fabric

NVLink across
the pod.

NVLink fabric across the pod and the CUDA stack above it, filling the Hyderabad campus now, with Vera Rubin Ultra NVL576 to follow.

NVLinkCUDANVL576
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Tokens · how the system works

Prompt in. Tokens out.

Every AI answer is made the same way: your prompt becomes tokens, one forward pass runs across the NVL72's 72 GPUs, and the answer streams back a token at a time. Try it.

2 · Tokens in 0 tokens
3 · NVL72 Vera Rubin · 72 GPUs, one machine idle
4 · Tokens out 0 tokens generated

HyperNext runs racks like this by the row, generating tokens by the billion on sovereign infrastructure in India. Read the research ›

Why HyperNext

Fewer things to fail.
More uptime.

An enterprise doesn't buy a data centre. It buys the certainty that its workloads keep running. That certainty comes from what you remove: 800VDC lets us take out the central UPS halls and their rooms of batteries, the single largest fire load and one of the most common points of failure in a conventional facility. Fewer conversion stages, fewer batteries, fewer things between the grid and the chip. The result is a simpler, cooler, more reliable building, and that is the argument for coming to HyperNext.

01 / WHY

UPS-free by design

800VDC removes the central UPS halls a conventional AC facility depends on. No double-conversion UPS, no rooms of batteries sitting in the power path. Backup rides at the rack instead. Fewer components between the grid and the GPU means fewer things that can fail.

02 / WHY

The largest fire load, gone

Battery rooms are among the most serious fire risks in any data centre. Take out the central battery plant and you take out that hazard, and the suppression, containment and insurance overhead that comes with it. A safer building for the workloads inside it.

03 / WHY

Power secured before concrete

330 MW allocated by Telangana State Transmission Corporation. A dedicated substation designed, approved and brought up in 1.5 years. While the industry waits for transmission, ours is already operational.

800VDC · AC vs DC

Same megawatt in.
More compute out.

Two differences. What a rack is allowed to draw, and what it costs to run once it does. The first five rows sell the hall. The last five decide the margin.

Conventional AC
HyperNext 800VDC
01 What you can put in it This is what sells the hall
Rack sizes you can land
Whatever the breakers were sized for the day the hall was built.
5–600 kWAny rack, same hall, same row.
Changing a rack's density
New copper, larger breakers, a redesigned board, work in a live hall.
A tap changeThe power already sits on the bus.
Mixing densities in a row
One dense rack pulls a phase out of balance and forces rebalancing.
No phasesDC has none. Nothing to rebalance.
What you commit to
A density. Guess high and overpay. Guess low and rebuild.
A power envelopeDensity stays yours to change.
Space given to UPS and batteries
UPS rooms, battery racks and electrical panels take 55% of the hall's grey space. Built, cooled, insured, never leasable.
None of itThat plant is not built, so its floor is not lost.
02 What it costs to run This is what decides the margin
Power reaching the chip
~75%. Up to six conversion stages lose the rest as heat.
~95%End to end. Two conversions.
Useful work per MW
Losses are paid twice: wasted power, then the power to cool it.
~20% moreOn the same electricity bill.
Cooling
Banks of chillers and CRAH units running around the clock.
37% lessDirect-to-chip liquid, no CDU.
Water
Millions of litres a year evaporated to reject heat.
ZeroSealed loop, dry coolers.
Carbon per token
Conversion and cooling losses become grid draw, and carbon.
Less drawnAnd met with renewable power.
01 / FLEX

Capacity lives on the bus

Power is not committed to breakers when the hall is built. It sits on the busway until a rack asks for it, and a rack asks by tapping. Taking a rack from 60 kW to 240 kW is a tap change, not an electrical project in a live hall.

Why it matters commercially: installed megawatts are not stranded behind the wrong-sized breakers. Power that a departing tenant releases is immediately available to the next one, at whatever density they need.

02 / FLEX

Mix densities in one row

A 5 kW storage rack, a 60 kW enterprise rack and a 600 kW AI rack can share the same row. In an AC hall one dense rack pulls a phase out of balance and forces rebalancing across the floor. Direct current has no phases, so there is nothing to rebalance.

Why it matters commercially: one hall serves the whole market rather than a single tier of it. Enterprise colocation, sovereign cloud and frontier AI training can be sold into the same footprint.

03 / FLEX

No density bet at signing

An AC tenancy forces the customer to commit to a density years ahead of the hardware. Guess high and they pay for power they never draw. Guess low and the hall is rebuilt around them. Here they commit to a footprint and a power envelope instead.

Why it matters commercially: it removes the objection that stalls long leases. Customers sign sooner because the decision is reversible, and they grow inside the contract rather than renegotiating it.

What we're deploying

800 MW of AI cluster,
on the ground.

Eight by two pods at 240 kW a rack, on the 800VDC power and the direct-to-chip cooling we built for exactly this load. It is the first slice of 800 MW of AI cluster we are deploying across the platform, racks that most halls in this country cannot power, let alone cool.

800 MW
AI cluster deploying across the platform
8 × 2
Vera Rubin pods at the Hyderabad campus
240 kW
per rack, liquid-cooled, on 800VDC

The same capacity, tuned to the workload that runs on it.

Footprint

Four campuses.
Two continents.

Three flagship campuses across India, anchored to fibre landings. One international gateway in South Africa. Plus five Build-to-Suit projects across India's top metros.

Flagship

Kakinada AI Factory

Andhra Pradesh, India
400 MWVera Rubin Ultra NVL576
400 MWAMD Helios
400 MWHyperscaler & enterprise

India's largest single-site AI factory: 1.2 GW, operational January 2028. Built around the rack-scale systems shipping from NVIDIA, AMD and HPE. Dedicated fibre on the Chennai-Vishakhapatnam Expressway.

India · Telangana

Hyderabad

BFSI Anchor Campus
250 MW IT · Dec 2026

Tier IV. 6 Indian + 4 international banks anchored.

India · Chhattisgarh

Nava Raipur

DRaaS, India First
100 MW · Apr 2028

Military-grade resiliency. Zero-downtime SLA available.

South Africa · Gauteng

Johannesburg

International Gateway
110 MW · Jun 2028

HyperNext's first international campus.

Plus 5 Build-to-Suit campuses, 15 to 25 MW each
Hyderabad Navi Mumbai Noida Pune Kolkata
Where to find us

Four offices.
One commitment.

Corporate offices across India's tech and financial corridors, plus a North America presence in Toronto. Closer to where you build, where you bank, where you decide.

India · Maharashtra

Mumbai

Bandra Kurla Complex

WeWork BKC
Bandra Kurla Complex
Mumbai 400051

India · Karnataka

Bangalore

Bagmane Tech Park

Bagmane Tech Park
Mahadevapura
Bengaluru 560048

India · Gujarat

Ahmedabad

Navratna Corporate Park

Navratna Corporate Park, Tower A
Ambli Bopal Road
Ahmedabad 380058

Canada · Ontario

Toronto

Bay Street Financial District

181 Bay Street
Toronto, ON M5J 2T3
Canada

Service levels

An SLA you can
hold us to.

Every customer gets an availability commitment in writing, watched live by our own building management system, and backed by service credits if we ever miss it. Reliability you can verify, not just take on trust.

Credit-backed guarantee

Miss an SLA target and service credits apply automatically. The commitment carries financial weight, not just words on a contract.

Real-time BMS monitoring

Power, cooling, security and network are watched around the clock from our NOC, per tenant, on the HyperNext building management system.

Predictive, not reactive

Asset health and root-cause analytics flag risk before it becomes downtime, so problems are resolved ahead of any customer impact.

HyperNext BMS dashboard: SLA, uptime and reliability view with per-tenant availability, reliability intelligence and SLA events, monitored from the NOC

A view from the HyperNext BMS: per-tenant uptime, SLA events, reliability intelligence and root-cause, monitored around the clock from our NOC.

Built with the best

A partner network of global leaders.

From accelerated compute and rack systems to power conversion, cooling and standby generation, every layer is built with the leader in its field, not the lowest bid.

NVIDIA
AMD
HPE
IBM
Hitachi Vantara
Delta Electronics
Eaton
Schneider Electric
Kirloskar
Cisco
Palo Alto Networks
Check Point
See all partners →
Our Commitment

Net Zero
by 2030.

Net zero is a serious thing to claim, so we do not claim it lightly. Powered by 2.7 GW of captive renewable energy. Cooled by liquid, not aquifers. Built on an electrical architecture we patented because the alternatives, in this climate, do not hold up.

800 VDC
Native DC architecture

Cuts 6-12% of conversion loss compared to legacy AC distribution. Designed for the rack-scale GPU systems that need it.

1.25 – 1.35
Patented PUE band

Real-world design PUE across the operational year. Validated against Indian peak ambient temperatures of 40 to 45°C. Three granted patents underpin the electrical topology.

660 kW
Per-rack density

Liquid-cooled racks designed for 660 kW. The headroom is intentional. The platform scales as silicon density compounds, without retrofits.

2.7 GW
Captive renewable

Khavda Kutch solar park: 700 MW operational, 2 GW under planning. Plus a portfolio of partnership wind allocations across the corridor.

< 0.1 L/kWh
Water Usage Effectiveness target
5+ B litres
Freshwater impact, Nagmati programme
29 + 14
Patents, granted and pending
Tier IV
Uptime Institute, every campus
HyperNext Research
Ten papers

An attack now begins and ends faster than a human operator can read the first alert, so mitigation must be autonomous.

The window between vulnerability discovery and weaponisation has collapsed from months to hours.

Water positive is an arithmetic test, not a marketing claim. It is failed more often than it is passed.

India's installed AI training capacity in 2026 is a small fraction of the 2030 demand. The gap will not close itself.

At 600 kW per rack, air cooling stops being a design choice. It is a no-longer-available choice.

The economic unit of AI is the token. The cost per million tokens determines whether a product scales or stays premium.

The Building Management System is the operating system of a Tier IV AI data center. Treat it accordingly.

Data residency in India is one of three layers of sovereignty. It is necessary. It is not sufficient.

The 415VAC distribution path that worked for the 5-20 kW rack era is now a stranded asset.

A data center that takes more water than it returns is not sustainable. It is borrowed.

HN-RP-010 Autonomous DDoS Scrubbing at Line Rate Engineering 03 July 2026