Technology

Engineered for the
AI decade.

HyperNext is India's first data center built around 800VDC power architecture and rack-scale AI systems from NVIDIA and AMD, designed for the workloads of 2028, not 2018.

India First · 800VDC

Why 800VDC is the future
of AI data centers.

AC distribution served the data center for forty years. For the densities AI now asks of us, it stopped being enough. We made the shift. Eight hundred volts of direct current, end to end, because it is the only honest answer at this scale. Pushed forward by the Open Compute Project and adopted by NVIDIA, AMD, Google, Microsoft and Meta, 800VDC is the architecture the hyperscale industry is converging on.

// Grid to chip · the energy that survives

Every conversion costs energy.
The fewer the conversions, the more tokens per watt.

Conventional · 415 VAC
75% reaches the GPU
100Grid
−2
98Transformer
−3
95LV bus
−8
87UPS
−3
84PDU
−9
75Chip
HyperNext · 800 VDC
95% reaches the GPU
100Grid
−2
98Transformer
−1
97Rectifier
−1
96DC bus
−1
95Chip
~20%
more energy reaching the chip on the same grid input.
The same megawatt produces more tokens. That is the entire point.
VDC / 01

Built for AI density

Modern AI racks draw 100 kW and beyond. 800VDC delivers that power natively, no Frankenstein retrofits, no compromise on stability.

VDC / 02

Fewer conversions, more efficiency

Traditional architectures convert power up to six times before it reaches a chip. 800VDC eliminates most of those stages, directly improving facility PUE.

VDC / 03

Less copper, lighter cabling

Higher voltage means lower current for the same power. Cable sections shrink dramatically, freeing pathways and reducing material cost across the facility.

VDC / 04

Aligned to the OCP standard

800VDC is the architecture NVIDIA, AMD, Google, Microsoft and Meta have been pushing through the Open Compute Project. We're building to the standard the industry is converging on.

VDC / 05

Future-proof headroom

The next generation of AI accelerators is being designed for DC power delivery. A facility built for 800VDC today is one that can host the racks shipping in 2028, without re-platforming.

VDC / 06

Cleaner power quality

Direct current eliminates the harmonic distortion and reactive losses inherent to AC distribution at scale, translating to cleaner, more predictable power at every rack.

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.

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.
The closed-loop cooling system →
NVIDIA · India First

India's first Vera Rubin
rack-scale system.

It is filling the Hyderabad campus now, on the same 800 VDC power and direct-to-chip cooling we built for exactly this load, with NVLink fabric across the pod, the CUDA stack above it, and Vera Rubin Ultra NVL576 waiting at the Kakinada AI Factory on day one.

India's first NVIDIA Vera Rubin rack-scale system, a full row of GPU compute trays installed at HN-1 Hyderabad

8 × 2 pods · 240 kW per rack · 800 MW AI cluster deploying

Workload Profiles

Built for every shape
of AI compute.

A workload should not have to compromise to fit infrastructure. Infrastructure should adapt. From inference at the edge of a transaction to simulations that run for months, the stack we built bends to the work.

Inferencing

High-throughput, low-latency inference for production AI, chatbots, recommendation, fraud detection, vision pipelines and agentic workloads.

RAG Systems

Retrieval-augmented generation that anchors LLMs in your own knowledge base, built on infrastructure tuned for vector throughput and dense storage.

Physical AI

Simulation, robotics, autonomous systems, workloads that bridge digital intelligence and the physical world.

Scientific AI

Drug discovery, climate modelling, computational fluid dynamics, long-running HPC workloads that demand sustained performance.

Open Compute

Open by design.

Vera Rubin and AMD Helios, side by side. Genuine choice, not the appearance of it. For inference, for retrieval, for physical AI, for scientific work. Our partnership with AMD brings the Helios rack-scale system to India for the first time, an open platform that has the potential to reshape India's AI infrastructure economics.

IBM · Enterprise & BFSI

Power & Mainframe
as a Service.

For Indian banks, IBM Power and IBM Mainframe arrive directly. As managed services. From us. The intermediaries that historically sat between Indian banks and the platforms they ran on, do not sit here. Lower cost, faster onboarding, accountable SLAs.

IBM Power11 enterprise server frame IBM Z mainframe with its front doors open, showing the processor drawers inside

IBM Power11 · IBM Z

Power as a ServiceAIX · IBM i · Linux
Mainframe as a Servicez/OS
Sovereign CoreBeneath Hyper 7
India-residentOperational control
Talk to engineering

Sizing for an AI workload?

Tell us about your model, your latency target, and your ramp plan, we'll size, price and schedule a deployment.

Vendor lock-in, dissolved

Run your CUDA models
on our AMD systems.
At NO transfer cost.

You should not be held hostage by the choice you made two years ago. We don't think that is right. So we built a path. CUDA to ROCm, translated, tuned, and validated by us. Your model still runs. Your numbers still hold. The silicon underneath happens to be AMD Helios. We pass NO engineering cost on to you, because the engineering cost should never have been yours to begin with.

0
Transfer cost passed to you
100%
Model accuracy preserved, validated against your baseline
~30%
Typical TCO reduction vs equivalent CUDA-only deployment
Both
CUDA + ROCm runtimes available, your choice per workload
Step 01
Codebase profiling
We profile your CUDA workload, identify CUDA-specific constructs, and benchmark on your existing baseline.
Step 02
Automated translation
HIPIFY-driven CUDA-to-HIP translation, with manual kernel tuning where automated tools fall short.
Step 03
Numerical validation
Bit-for-bit and statistical accuracy validation against your original CUDA outputs. We sign off only when you do.
Step 04
Performance tuning
Kernel tuning, memory layout optimisation and AMD-specific scheduling. Target: meet or exceed your CUDA throughput.
Step 05
Continuous parity
Every CUDA library update tracked. ROCm equivalents validated. No drift over time.
Step 06
Optional rollback
Can move you back to NVIDIA-based clusters anytime. Same workload, same data, same code. No coupling, no lock-in.
AMD Helios rack-scale system, a full rack of Instinct MI accelerators on the Infinity Fabric interconnect

AMD Helios · rack-scale

ROCmSoftware stack
Instinct MIAccelerators
Infinity FabricInterconnect
No transfer costCUDA to ROCm
AI workloads

Twenty-two workloads.
No two alike.

Some workloads ask for scale. Others ask for stillness. Some need every watt of every accelerator. Others need a careful answer in twelve milliseconds. Twenty-two workload patterns, each with its own discipline. We considered each one. We did not retrofit anything.

USE / 01

Frontier model training

Multi-thousand GPU clusters with NVIDIA Vera Rubin Ultra NVL576 and AMD Helios. Rack-scale liquid cooling. Lossless InfiniBand and 800G Ethernet fabric. Continuous training at >90% MFU.

USE / 02

Agentic AI & inference

Production-grade inference with sub-millisecond latency for agentic workflows. Multi-tenant isolation. KV-cache optimisation, speculative decoding, and dynamic batching tuned for tool-use latency budgets.

USE / 03

Healthcare & diagnostics

Non-invasive diagnostic AI for early disease detection. Genomic and proteomic inference. Federated medical models with patient data never leaving the sovereign boundary.

USE / 04

Drug discovery

Molecular simulation, protein folding, and hybrid AI-physics models for pharmaceutical R&D. HPC-class precision combined with AI-class scale. IP protected inside India.

USE / 05

Financial services AI

Real-time fraud detection, credit decisioning, algorithmic trading and risk analytics. RBI-compliant deployment with sub-millisecond inference latency for transaction streams.

USE / 06

Physical & embodied AI

Robotics training, simulation, and digital-twin workloads for manufacturing, defence and autonomous systems. NVIDIA Omniverse and Isaac platform ready.

USE / 07

Scientific computing

Climate modelling, materials science, fluid dynamics and quantum chemistry. HPC-grade interconnect with AI-grade accelerators. Suitable for AIRAWAT and CSIR-grade research.

USE / 08

Enterprise RAG & copilots

Sovereign retrieval-augmented generation and enterprise copilot platforms. Customer data never leaves the boundary. Pre-built integrations with leading vector databases and LLM frameworks.

USE / 09

Federated learning

Train across distributed customer enclaves without raw data leaving each enclave. Differential privacy guarantees, secure aggregation, and audit-grade lineage of every gradient update.

USE / 10

Multimodal & generative AI

Vision-language models, video generation, speech and audio synthesis. Fine-tuning on customer multimodal corpora with content-safety guardrails enforced inside the platform.

USE / 11

Telco AI & RAN

O-RAN intelligent controller workloads, network optimisation, beam-forming and self-organising networks. DoT-licensable and edge-deployable to telecom POPs.

USE / 12

Industry 4.0 & manufacturing

Computer-vision quality inspection, predictive maintenance, digital twin of factories, supply-chain optimisation. OT-IT bridge with field-bus integration.

USE / 13

Quantum-classical hybrid

Hybrid quantum-classical workflow execution. Variational quantum eigensolvers, QAOA optimisers, and classical co-processing for emerging quantum computing partners.

USE / 14

Government & sovereign AI

Whole-of-government inference platforms, citizen-data analytics, national language models, and inter-departmental data fabric workloads. Sovereign-by-architecture.

USE / 15

Speech & language

Speech recognition, translation, and natural language understanding at scale. Indic-language model training and inference, multilingual dialog systems, conversational AI for service workloads.

USE / 16

Computer vision at scale

Image and video understanding, manufacturing inspection, surveillance analytics, retail computer vision, and medical imaging classifiers. Pipelines that operate continuously, not in batches.

USE / 17

Recommendation systems

Two-tower retrieval, deep ranking, and personalisation engines running at internet scale. Latency-bound serving with continuous incremental training and tight feature-store integration.

USE / 18

Cybersecurity AI

Threat detection, behavioural anomaly models, malware classification, and security copilots. Real-time inference against streaming telemetry from SOC and NOC pipelines.

USE / 19

Code generation

Developer copilots, code review automation, repository-wide understanding, and SRE assistants. Fine-tuning on customer codebases inside the sovereign boundary.

USE / 20

Time series & forecasting

Energy load forecasting, demand prediction, capacity planning, financial time series, and weather-coupled industrial optimisation. Continuous training on rolling windows.

USE / 21

Reinforcement learning

Policy training for control systems, robotics, energy management, and operations research. Long-horizon simulation environments coupled with GPU-accelerated rollouts.

USE / 22

Synthetic data & simulation

Synthetic data generation for training where real data is scarce or restricted. Domain-specific simulation environments for autonomous systems, industrial AI, and clinical research.

Patents · Proprietary IP

29 patents granted.
14 under approval.

Engineering is something we take seriously. The patents speak more carefully than we could.

6
Patents granted

Cancer detection AI

Non-invasive early detection models, multi-modal imaging analysis, and tissue-classification networks.

5
Patents granted

Clear aligner manufacturing

AI-driven orthodontic planning, treatment-path prediction, and aligner manufacturing optimisation.

7
Patents granted

Antimicrobial resistance

Resistance-pattern prediction, treatment-recommendation models, and pathogen-genome AI.

3
Patents granted

Hybrid molecular drug discovery

Physics-informed neural networks for protein-ligand binding and lead-compound optimisation.

4
Patents granted

Multi-threading for AI on CPU

Cache-aware threading and instruction-level scheduling for efficient AI inference on CPU-only hardware.

4
Patents granted

Memory load balancing

Dynamic memory allocation and NUMA-aware scheduling for optimum utilisation under heavy AI workloads.

+ 14
Additional patents under approval across electrical efficiency, liquid cooling, and AI workload orchestration, including our in-house direct-to-chip hybrid cooling for 1400W-class GPUs.
HyperONE · Proprietary platform

Software that saves you
millions in licensing.

We built our own. We have reasons. An operating system that does not extract a tax with every socket. A virtualisation layer that does not hold your workload in escrow. A building management system that does not depend on a single vendor remembering you in five years.

01

HyperONE OS

A hardened, performance-tuned operating system replacing expensive proprietary alternatives without losing a single capability.

  • RHEL-compatible binary interface
  • Real-time scheduling for AI workloads
  • FIPS 140-3 cryptographic modules
  • Zero per-socket licensing fees
  • Integrated container and KVM runtime
  • Hardened by default, audit-ready
02

HyperONE Virtualisation

Enterprise-class virtualisation that meets every demand of regulated, high-density environments. No hostage taking.

  • Live migration with zero packet loss
  • vGPU partitioning for NVIDIA & AMD
  • NUMA-aware VM placement
  • VMware-compatible APIs
  • Integrated SDN with EVPN/VXLAN
  • Per-tenant resource isolation guarantees
03

In-house BMS

A vendor-agnostic Building Management System developed independently in-house. Real-time facility telemetry without lock-in to any single OEM, down to the coolant chemistry in the dry-cooler loops, sensed live by our inline fluid-quality valve.

  • BACnet, Modbus, SNMP, OPC-UA native
  • Real-time facility monitoring
  • Integrated with Digital Twin platform
  • Predictive maintenance ML models
  • Cross-vendor alarm aggregation
  • Open API for customer integration
The HyperNext virtualisation console showing hosts, clusters and virtual machines in a single inventory, with a live guest shell open in the browser

One control plane. x86 and IBM Power in a single inventory, with a real guest shell and no agent to install.

The HyperNext virtualisation console datacentre summary, showing clusters, hosts, virtual machines, CPU and memory allocation

A real guest shell in the browser. No client, no plugin, no agent.

Electrical Architecture · Patented

Best-in-class PUE,
even at 45°C.

India's ambient temperatures peak at 40 to 45 degrees Celsius for months at a time. Conventional data center electrical designs degrade significantly above 35°C. Our patented electrical architecture maintains best-in-class PUE through the hottest peak hours, every day of the year.

Patent · HX-001
High-ambient power topology
Patented topology compensates for transformer and rectifier efficiency loss at high ambient. Maintains 800VDC stability through monsoon and peak summer.
Patent · HX-002
Adaptive thermal load shifting
Real-time load redistribution across redundant power chains based on inlet temperature. Reduces stranded capacity by up to 22%.
Patent · HX-003
Predictive harmonic shaping
AI-driven harmonic distortion management at the bus level. Cuts losses across the rectifier chain by ~6% during peak summer.
Outcome
PUE 1.35 at peak
PUE 1.35 at 42°C ambient, validated by independent commissioning. PUE 1.25 in moderate conditions. The published band is 1.25 to 1.35, end to end of the operating year.
Fault isolation · Uptime Tier IV

Single compartmentalised system.
Hyperscale reliability.

There are systems that fail well, and systems that fail badly. We chose to build one that fails well. Compartmentalised by design. Concurrently redundant. Tier IV at every campus, by the Uptime Institute. Not the rating. The thing itself.

01

True compartmentalisation

Physical and electrical isolation between power and cooling trains. A single fault cannot propagate beyond its compartment. Concurrent maintenance across the entire facility with zero workload impact.

02

Tier IV across every site

All HyperNext campuses are Uptime Institute Tier IV. Not Tier III. Not "Tier IV-ready". Tier IV certified by the Institute, with constructed-facility certification scheduled at commissioning. No exceptions.

03

Concurrent redundancy

2N power, 2N cooling, multiple independent network paths, and physically diverse standby generation. Any component can fail or be taken offline for maintenance without affecting any workload.

04

Hyperscale-grade reliability

Designed and commissioned to the same operational standards as the top three global hyperscalers. Same fault domains, same redundancy assumptions, same continuous-availability principles.

Cybersecurity · Included

365 days of security logs.
Free.

For three hundred and sixty-five days, we keep every security log. We don't charge extra. We don't hide it in a tier. We don't quietly rotate it at thirty days. A full year of forensic visibility, because we don't think you should have to ask.

365 daysDefault retention, included
SIEM-readyStreaming export to your SIEM at no cost
Tamper-evidentCryptographically chained, audit-ready
7 yearsOptional extension for BFSI & regulated