Reflex whitepaper

Case: 2 MW AI facilities across Africa

Published
September 2026
First site
Ota Industrial Estate, Ogun State
Platform
NVIDIA DGX SuperPOD

Summary

Cortex is Reflex’s program to build, operate, and monetize modular 2 MW NVIDIA DGX SuperPOD installations in African metros where generation capacity, subsea fibre, and enterprise demand already meet. The first deployment retrofits a warehouse in Ota Industrial Estate, in the Lagos–Ogun metro, and brings eight DGX Vera Rubin NVL72 racks, 576 GPUs in total, into commercial operation.

The facility’s product is tokens. Reflex sells inference through its own model-as-a-service layer at $4.00 per million tokens and backfills idle capacity as bare-metal cloud at $5.00 per GPU-hour. Under the utilization ramp modeled in the revenue projections, the site produces $584.2M of Year 1 revenue against an operating cost ceiling of $25.0M.

Accelerated compute576 GPUs8 × Vera Rubin NVL72
Critical IT load2 MWLiquid-cooled
Year 1 revenue$584.2MMaaS and IaaS
Year 1 net operating income$559.2MBefore capex and tax

Key findings

  • Power is the binding constraint on AI capacity. The ten target sites sit beside more than 3.6 GW of generation, most within three miles of carrier fibre.
  • Tokens outperform rental by 43×. One GPU-hour sold as inference returns $216.00; the same hour rented as bare metal returns $5.00.
  • Existing shells shorten time to power. Retrofitting a warehouse avoids greenfield construction.
  • Local crews run the site. Reflex trains and certifies technicians and engineers in-country, with 44 direct operating roles in Year 1.

Sites

A viable site must be able to power a SuperPOD today and sell its output to buyers within reach of the same fibre.

Selection criteria

Reflex evaluated candidate interconnects across the continent against six factors spanning network, business, and power.

PowerMW at the interconnect
Sets the ceiling for expansion beyond the first 2 MW block.
Fibremiles to carrier route
Drives latency, backhaul cost, and time to cross-connect.
Banking$bn metro bank assets
A proxy for high-compliance enterprise and sovereign demand.
BPO$m outsourcing market
Near-term demand for customer service and document agents.
SubscribersM mobile subscribers
Sizes consumer-facing inference volume in the market.
Buyer networksreachable enterprise buyers
Indicates how quickly enterprise sales cycles close.

Target metros

Ten metros meet the criteria, spanning West, North, East, and Southern Africa. Lagos–Ogun is the first deployment and the subject of the case study that follows. Select a metro to see its site.

Satellite view of Africa with the ten Cortex target metros labeled01Lagos–Ogun02Cairo03Accra–Tema04Cape Town05Nairobi06Dar es Salaam07Alexandria08Luanda09Casablanca10MombasaImagery: NASA Blue Marble

Site 01

Olorunsogo II

Lagos–Ogun, Nigeria

6.87° N · 3.23° E

Adjacent generation
754 MW
Distance to fibre
3.0 mi
Figure 1. Cortex target metros. Each label connects to its interconnect site on satellite imagery.Source: Reflex site analysis; imagery NASA Earth Observatory Blue Marble.

Case study: Ota Industrial Estate, Lagos–Ogun

The first Cortex installation converts an existing warehouse in Ota Industrial Estate into a 2 MW SuperPOD, in the same Ogun industrial corridor as the 754 MW Olorunsogo II power station.

Ota Industrial Estate site

The building sits in Ota Industrial Estate, Ado-Odo/Ota LGA, Ogun State. It is a steel-framed warehouse with a clear-span interior, roller-shutter bays, and open yard space around the shell (Figures 2 and 3). The plan retrofits it rather than building new: slab reinforcement for rack loads, a mechanical yard for dry coolers, and a secured electrical room at the utility connection. Carrier fibre that reaches the Lagos subsea landing stations runs within 3.0 mi.

Adjacent generation754 MWOlorunsogo II
Distance to fibre3.0 miCarrier-grade route
Mobile subscribers145MNigeria
BPO market$1,896MLagos metro
Satellite view of the Olorunsogo II site, Lagos–Ogun
Figure 2. Ota Industrial Estate, satellite view. Ado-Odo/Ota LGA, Ogun State.
Gabled warehouse bays with sliding steel doors at Ota Industrial EstateExterior
Long side wall of the warehouse with barred windows and a raised water tankSide elevation
Clear-span steel-framed warehouse interior with roller-shutter doorsInterior
Figure 3. The warehouse today. Exterior, side elevation, and interior of the building before retrofit.Source: Private Property Nigeria listing, privateproperty.ng.

Project timeline

Twelve months separate notice to proceed from commercial operation, and the schedule has little slack. Transformers, switchgear, and cooling plant are ordered in the second month because they take the longest to arrive; power, permits, and shell work run in parallel so that the building is ready when racks ship in month nine.

Workstream
M1
M2
M3
M4
M5
M6
M7
M8
M9
M10
M11
M12
Site survey & land controlReflex
Power interconnect agreementReflex · Utility
Long-lead equipment ordersReflex · Mark III
Permits & environmental reviewOgun State
Shell retrofit & slab reinforcementEPC contractor
Electrical & liquid-cooling plantEPC contractor
Fibre backhaul & cross-connectsCarrier partner
Rack delivery & cluster buildMark III Systems
Burn-in & acceptanceMark III · NVIDIA
MaaS launch & IaaS backfillReflex
Workstream duration Milestone: cluster acceptance (M11), commercial operation (M12)
Figure 4. Project timeline, months from notice to proceed. Owners are shown beneath each workstream.

Stakeholders

Table 1. Stakeholder organizations and roles

OrganizationRole
Reflex TechnologiesProject sponsor, developer & operator
Mark III SystemsNVIDIA partner, cluster design, deployment & cloud stack
NVIDIADGX SuperPOD platform, reference architecture & support
Olorunsogo II Power StationPrimary power offtake
Ogun State GovernmentPermitting, land use & investment incentives
Carrier partner (to be selected)Metro fibre backhaul to Lagos landing stations
EPC contractor (to be selected)Shell retrofit, electrical & mechanical plant

Installation

Reflex will partner with Mark III Systems to design, build, and bring up the cluster and its cloud software stack. Mark III is an NVIDIA partner focused on enterprise AI factories: it sizes, cables, and operates DGX SuperPOD infrastructure, and supported the SuperPOD behind Bristol Myers Squibb’s AI Center of Excellence.

  • Design. Rack-scale layout, power, and cooling budgets against the NVIDIA DGX SuperPOD reference architecture.
  • Integration. Rack placement, compute and storage fabric cabling, and liquid-cooling hookup.
  • Cloud stack. Cluster management, Slurm and Kubernetes scheduling, and multi-tenant isolation for the IaaS and sovereign tenant lines.
  • Acceptance. Burn-in, performance validation, and handover to Reflex operations alongside the local crew certification program.
Two rows of NVIDIA DGX Vera Rubin NVL72 racks
Figure 5. NVIDIA DGX Vera Rubin NVL72. Each rack connects 72 Rubin GPUs and 36 Vera CPUs in a single NVLink domain. Cortex deploys eight.Source: NVIDIA DGX Vera Rubin NVL72 datasheet.

Rack anatomy

Every NVL72 rack is a self-contained system. Compute trays sit above and below the NVLink switch trays that join them, with power shelves at the top and bottom of the rack.

Front view of a single NVIDIA NVL72 rack

From top to bottom

  1. Top-of-rack management switches2
  2. Power shelves4
  3. Compute trays10
  4. NVLink switch trays9
  5. Compute trays8
  6. Power shelves4

Per rack: 72 GPUs and 36 CPUs in one NVLink domain.

Figure 6. A single NVL72 rack. Shown on the GB300 generation; Vera Rubin NVL72 uses the same arrangement of compute and NVLink switch trays.Source: NVIDIA DGX SuperPOD GB300 reference architecture.

Facility hookups

Three utilities enter the data hall: power from the utility connection, warm-water cooling from a chiller-free dry cooler plant, and network from the Lagos subsea landings. Each path is built with redundancy from the utility boundary to the rack.

Facility hookups: power, liquid cooling, and network paths into the data hallPOWERGrid tieUtility feeder, 33 kVSubstation2 × 2.5 MVA, N+1UPS & switchgear415 V, 2N feedsBusway to racksRack power shelvesLIQUID COOLINGDry coolersChiller-free ≤ 35 °CHeat exchangerFacility water loopCDUsDirect-to-chip loopRack manifoldsQuick-disconnectsNETWORKSubsea landings2Africa · EquianoMetro fibre3.0 mi diverse pathEdge routersFirewalls, meteringCompute fabricInfiniBand spine/leafDATA HALL8 × Vera Rubin NVL72576 GPUs · 2 MW IT
Figure 7. Power, cooling, and network paths into the data hall. Capacities are design targets pending utility and carrier agreements.

Lagos–Ogun ambient temperatures rarely exceed 35 °C, which lets the cooling plant reject heat through dry coolers and a heat exchanger without mechanical chillers for most of the year (Figure 8). Dynamic power provisioning then lets the site place more rack capacity inside the same utility envelope (Figure 9).

Diagram of a warm-water cooling loop with dry cooler, chiller bypass, pumps, and heat exchanger
Figure 8. Warm-water liquid cooling loop. Facility water at 40 °C supply and 49 °C return; the heat exchanger carries 100% of the load with the chiller bypassed.Source: NVIDIA Technical Blog, Vera Rubin POD.
Comparison of static Max-P and dynamic Max-Q rack power provisioning
Figure 9. Static versus dynamic rack power provisioning. Provisioning racks at workload need recovers stranded power, enough to add a rack in the same budget.Source: NVIDIA Technical Blog, Vera Rubin POD.

The product is tokens

Most data centers sell capacity: a rack, a server, or an hour of GPU time. The customer pays for that time whether or not it produces anything. Cortex sells the output instead. Every request to the Cortex API, whether a support conversation, a contract review, or an agent completing a task, is measured in tokens, the small units of text a model reads and writes, and billed at $4.00 per million.

What makes that profitable is how Cortex runs its models. A conventional model is dense: to produce every single token, the GPU computes the entire network, every one of its billions of parameters. Cortex uses a sparse execution layer that activates only about 5% of the network for each token, the part relevant to that request, and skips the rest (Figure 10). The GPU does roughly a twentieth of the arithmetic per token, so the same hardware and the same megawatts produce far more tokens, and racks serving this traffic draw 15–20% less power.

Figure 10. What 5% sparse means. Each square is one block of a model. A dense model computes every block for every token; Cortex computes about one in twenty.
  1. Power2 MWCritical IT load
  2. Compute576 GPUs8 × Vera Rubin NVL72
  3. Execution5% activeShare of the model computed per token
  4. Output746B tokensPer day at full allocation
  5. Price$4.00Per million tokens
Figure 11. From power to priced tokens. Daily output assumes the full cluster allocated to MaaS.

The revenue model assumes each GPU sustains 15,000 tokens per second. At that rate one GPU produces 54 million tokens an hour, worth $216.00. Rented out as raw hardware, the same GPU-hour earns $5.00, 43 times less.

Revenue per GPU-hour

USD · same hardware, two ways to sell it

MaaS (tokens)IaaS (GPU-hours)
Figure 12. Revenue per GPU-hour by service line. MaaS yields 43× IaaS on identical hardware.

Reflex’s commercial priority is onboarding enterprise API clients. IaaS fills idle capacity while MaaS demand ramps.

Business model

Cortex monetizes one physical cluster three ways, stacked so that every GPU-hour is sold at the highest-margin layer with demand for it.

Three-layer stack

Reflex’s middleware layer slices the cluster dynamically and routes kernels so that MaaS traffic, dedicated tenants, and bare-metal jobs share the same hardware without contending for it.

Layer 3Model-as-a-Service (MaaS)
Enterprise APIPer token or per task
Layer 2Intelligent middleware
Dynamic slicingKernel routing across tenants
Layer 1Infrastructure-as-a-Service (IaaS)
Bare metalCluster rental by the GPU-hour

Running on one NVIDIA DGX SuperPOD: 8 × Vera Rubin NVL72, 576 GPUs

Figure 13. Cortex service stack. Each layer maps to a distinct commercial interface.

Service lines

  1. 01

    Model-as-a-ServiceMaaS

    Hosted model endpoints that customers call over an API, with no servers to manage. Sparse execution computes about 5% of the model per token, so Cortex can price inference well below dense-model APIs.

    Buyers
    Application developers and enterprises calling an API
    Pricing
    Per million tokens generated, or per automated agent task completed
  2. 02

    Infrastructure-as-a-ServiceIaaS

    GPU capacity rented by the hour or leased by the month, as bare metal or through a scheduler. Customers get liquid-cooled DGX SuperPOD capacity on NVLink without throttling, and Cortex fills GPUs that MaaS is not using.

    Buyers
    AI teams training or fine-tuning their own models
    Pricing
    Per GPU-hour, or monthly and annual dedicated cluster leases
  3. 03

    Dedicated Compute / Sovereign Tenant CloudCCaaS

    A dedicated, isolated slice of the cluster reserved for a single organization. Partitioning at the hardware level gives regulated customers private data center compliance without building one.

    Buyers
    Governments, hospital networks, and banks
    Pricing
    Flat-rate monthly virtual data center subscription

Revenue & cost projections

Year 1 combines a MaaS ramp from 20% to 80% of the cluster with IaaS backfill of the remainder. MaaS carries 97.9% of revenue.

Year 1 revenue

Combined revenue$584.2MYear 1
MaaS revenue$572.2M$4.00 per million tokens
IaaS revenue$12.0M$5.00 per GPU-hour
Q4 exit run-rate$877.0MAnnualized

Twenty percent of the cluster processing MaaS tokens in Q1 earns $54.5M, more than ten times the $5.0M earned by the other 80% on hourly rental. Revenue therefore tracks the pace of enterprise API onboarding far more than total utilization.

Revenue by quarter

Year 1 · USD

MaaS (tokens)IaaS (GPU-hours)
Figure 14. Quarterly revenue by service line. IaaS contribution shrinks as MaaS takes a larger share of the cluster.

Cluster allocation

Share of GPU capacity by quarter

MaaS (tokens)IaaS (GPU-hours)
Figure 15. Cluster allocation by quarter. Share of GPU capacity assigned to each service line.

Table 2. Year 1 revenue by quarter

QuarterMaaS shareMaaS revenueIaaS shareIaaS revenueCombined
Q120%$54,494,208.0080%$5,045,760.00$59,539,968.00
Q245%$122,611,968.0055%$3,468,960.00$126,080,928.00
Q365%$177,106,176.0035%$2,207,520.00$179,313,696.00
Q480%$217,976,832.0020%$1,261,440.00$219,238,272.00
Year 1$572,189,184.00$11,983,680.00$584,172,864.00

Table 3. Model assumptions

AssumptionValueBasis
GPUs in service5768 racks × 72 GPUs
Hours per quarter2,1908,760 hours ÷ 4
MaaS price$4.00Per million tokens generated
IaaS price$5.00Per GPU-hour, baseline market rate for unused slices
Sustained throughput15,000Tokens per GPU-second, implied by the MaaS revenue line
Sell-through100%All allocated capacity is billed

Sensitivity. Because MaaS carries nearly all revenue, the projection is most sensitive to sustained throughput and sell-through. At half the modeled throughput, Year 1 revenue falls to $298.1M.

Operating costs

Year 1 operating costs fall into three buckets totaling $16.5M to $24.0M; the model uses a $25.0M ceiling.

Table 4. Year 1 operating cost matrix

Cost bucketScopeLowHigh
Power & liquid coolingUtility offtake, CDU and dry-cooler operation, backup generation fuel$8.0M$12.0M
Software infrastructure & API routingIngress and egress transit, firewalls, token metering, compliance logging$3.5M$5.0M
Systems engineering payrollTriton, CUDA, and kernel optimization engineers; on-site operations leads$5.0M$7.0M
TotalCeiling used in model: $25.0M$16.5M$24.0M

Excludes hardware capex, depreciation, financing, and tax.

Power budgeting. Racks running the Cortex sparse execution layer draw roughly 15–20% less power than dense workloads. When the same racks backfill traditional training or rendering jobs, draw returns to 100%. The utility contract and cooling plant are therefore budgeted for peak dense workloads, even though native MaaS traffic runs cooler.

Return on investment

Return depends on what the site costs to build, and that figure is not settled yet: it comes from the Mark III bill of materials for the eight racks and the compute fabric, plus the EPC quote for the power and cooling retrofit. Rather than assume a number, the model reports when Year 1 income recovers a range of capital costs.

Net of the $25.0M operating ceiling, Year 1 produces $559.2M of net operating income (Figure 16). A $150M build is recovered inside the second quarter of commercial operation; a $500M build is recovered inside the fourth.

Cumulative net operating income

Year 1 · USD · revenue less the operating cost ceiling

Figure 16. Cumulative net operating income. Revenue less the operating cost ceiling, spread evenly across quarters.

Table 5. Capital recovery sensitivity

Capital costPayback quarterYear 1 net ÷ capital cost
$50MQ111.2×
$100MQ25.6×
$150MQ23.7×
$200MQ32.8×
$300MQ31.9×
$400MQ41.4×
$500MQ41.1×

Payback is the first quarter in which cumulative net operating income exceeds the capital cost. Excludes financing costs, import duties, and tax.

Operations

Reflex hires locally, trains to a published standard, and certifies every technician before they work on live equipment.

Reflex will train and certify local crews

Training starts during construction so that certified crews are in place for rack delivery. Four tracks cover 44 seats in the first cohort, matching the Year 1 operating headcount.

Table 6. Certification tracks, first cohort

TrackScopeLevelsWeeksSeats
Critical facilities technicianSwitchgear, UPS, generator transfer, lock-out / tag-outLevel I–II1216
Liquid-cooling technicianCDU operation, coolant chemistry, leak detection, quick-disconnect serviceLevel I–II1010
Network & fibre technicianStructured cabling, InfiniBand and Ethernet fabric, OTDR testingLevel I–III1410
Cluster operations engineerCluster management, Slurm and Kubernetes, node triage, RMA workflowLevel II–III208

Certification has three levels. Level I technicians complete classroom and lab instruction, then work under supervision on de-energized equipment. Level II technicians work independently on live systems after a practical assessment by Reflex and Mark III engineers. Level III leads run shifts and train and assess Level I candidates.

Maintenance & depreciation

Maintenance runs on a fixed three-year calendar. Each row in Figure 17 is one activity, and a filled block marks every quarter it takes place. Facility systems are serviced every quarter, compute upgrades land in planned quarters to protect MaaS availability, and refresh planning begins in the fourth quarter of Year 2. The bottom row tracks hardware book value over the same period.

Facility: power & coolingCompute & networkAsset lifecycle
Activity
Frequency
Year 1
Year 2
Year 3
Q1
Q2
Q3
Q4
Q1
Q2
Q3
Q4
Q1
Q2
Q3
Q4
Electrical inspection
Quarterly
CDU filters & coolant sampling
Quarterly
UPS battery load test
Yearly, Q2
Infrared thermal survey
Yearly, Q3
Coolant flush & pressure test
Yearly, Q4
Spares & RMA audit
Yearly, Q1
GPU firmware & drivers
Twice yearly
Network switch OS upgrade
Yearly, Q3
Hardware refresh planning
From Y2 Q4
Book value (%)
End of quarter
95
90
85
80
75
70
65
60
55
50
45
40
Figure 17. Three-year maintenance schedule. Quarters counted from commercial operation. Book value assumes five-year straight-line depreciation.

Hardware book value

Percent of capitalized cost · five-year straight-line

Figure 18. Hardware book value over the maintenance horizon. Straight-line depreciation over a five-year useful life leaves 40% of capitalized cost on the books at the end of Year 3.

Job creation projections

Construction peaks at 180 direct workers. Operations begin with 44 direct roles and grow to 62 by Year 3 as MaaS volume and tenant count rise. Indirect and induced employment covers suppliers, security, logistics, and local services.

Projected jobs

Headcount by phase

DirectIndirect & induced
Figure 19. Projected employment by phase. Preliminary estimates, to be refined with the EPC contractor and Ogun State.

Portfolio sites

Lagos–Ogun is the first of ten. Each Cortex site reuses the same 2 MW module, the same Mark III integration playbook, and the same certification program.

Satellite view of the Olorunsogo II site, Lagos–Ogun
Site 01Olorunsogo IILagos–Ogun, Nigeria
Satellite view of the Cairo North site, Cairo
Site 02Cairo NorthCairo, Egypt
Satellite view of the Kpone Thermal site, Accra–Tema
Site 03Kpone ThermalAccra–Tema, Ghana
Satellite view of the Acacia site, Cape Town
Site 04AcaciaCape Town, South Africa
Satellite view of the Ngong site, Nairobi
Site 05NgongNairobi, Kenya
Satellite view of the Tegeta / Kinyerezi site, Dar es Salaam
Site 06Tegeta / KinyereziDar es Salaam, Tanzania
Satellite view of the El Ameriya Refinery site, Alexandria
Site 07El Ameriya RefineryAlexandria, Egypt
Satellite view of the Luanda CFL site, Luanda
Site 08Luanda CFLLuanda, Angola
Satellite view of the Mohammedia site, Casablanca
Site 09MohammediaCasablanca, Morocco
Satellite view of the Kipevu III site, Mombasa
Site 10Kipevu IIIMombasa, Kenya
Figure 20. Cortex site portfolio. Satellite views of the ten target sites.

Customers

Cortex sells to three kinds of buyer: African enterprises that want inference close to their users, AI-native companies generating tokens at scale, and infrastructure firms that need power-available capacity.

Customer profiles

Table 7. Target customer segments

SegmentWorkloadsToken volumeContractBuying driver
Pan-African enterprisesCustomer service agents, fraud scoring, document intelligence, local-language models50M – 2B tokens / dayMaaS, CCaaSData residency, latency to Lagos and Nairobi users, FX-predictable pricing
AI-native applicationsCoding agents, search and answer engines, long-context reasoning1B – 50B+ tokens / dayMaaSCost per task on long-horizon workloads; throughput headroom
Inference & capacity offtakersOverflow inference, fine-tuning, regional point of presenceBlock capacity (GPU-months)IaaS, dedicated leasePower-available capacity outside saturated markets

Target accounts

Enterprise demand concentrates in telecoms, banking, and payments across the target metros. AI-native demand comes from companies already processing millions of tokens a day that need a more efficient cost per task. Offtake demand comes from neoclouds and interconnection providers that sign multi-year inference and capacity agreements.

Enterprises in target metros

Telecoms, banks, payments, commerce, and industrials operating across the ten Cortex metros

  • MTN
  • Airtel Africa
  • Safaricom
  • Dangote Group
  • Access Bank
  • Ecobank
  • Flutterwave
  • Paystack
  • Moniepoint
  • Interswitch
  • Jumia
  • Andela
  • Orange

AI-native applications

Products generating millions to billions of tokens per day, where cost per task sets margin

  • Anthropic
  • OpenAI
  • Perplexity
  • Cursor
  • Mistral AI
  • Hugging Face
  • Replit
  • Notion
  • Intercom
  • Duolingo
  • Quora

Inference & capacity offtakers

Neoclouds and interconnection providers seeking power-available capacity outside saturated markets

  • CoreWeave
  • Equinix
  • Lambda
  • Together AI
  • Nebius
  • Crusoe
Figure 21. Target accounts by segment. Logos identify prospective buyers by segment. Their inclusion does not imply a commercial relationship or endorsement.

Track record

The Cortex delivery team has built rooftop solar arrays on two operating Target facilities in New York State, engineered around existing structures and connected to the utility without disrupting the tenant.

Aerial view of a 471 kW rooftop solar array on the Target facility in Schenectady, New York
Schenectady, New York471 kW
Aerial view of a 442 kW rooftop solar array on the Target facility in Depew, New York
Depew, New York442 kW
Figure 22. Delivered rooftop solar projects. Commercial rooftop arrays on operating Target retail facilities.

Notices & references

Forward-looking statements

This whitepaper contains projections of revenue, cost, employment, and schedule. They rest on assumptions about pricing, throughput, utilization, power availability, and regulatory approvals that may not hold. Actual results may differ materially. Nothing in this document is an offer to sell or a solicitation to buy any security.

Trademarks

NVIDIA, DGX, DGX SuperPOD, NVLink, and Vera Rubin are trademarks of NVIDIA Corporation. All other company names and logos are trademarks of their respective owners and are used for identification only.

Image credits

Continental satellite imagery: NASA Earth Observatory, Blue Marble Next Generation. Site satellite views: Google Maps. Warehouse photography: Private Property Nigeria listing. NVIDIA product imagery and diagrams: NVIDIA Corporation. Solar project photography: Reflex project records.

References

  1. NVIDIA DGX SuperPOD Reference Architecture: Rubin NVL8 (x86). docs.nvidia.com/dgx-superpod/reference-architecture/scalable-infrastructure-rubinx86/latest/abstract.html
  2. NVIDIA NVL72 AI Factory Enterprise Reference Architecture: Components. docs.nvidia.com/enterprise-reference-architectures/nvl72-ai-factory/latest/components.html
  3. NVIDIA DGX SuperPOD with DGX GB300 Reference Architecture. docs.nvidia.com/pdf/dgx-spod-gb300-ra.pdf
  4. NVIDIA DGX Vera Rubin NVL72 Datasheet. resources.nvidia.com/en-us-dgx-systems/dgx-vera-rubin-nvl72-datasheet
  5. NVIDIA Vera Rubin POD: Seven Chips, Five Rack-Scale Systems, One AI Supercomputer. developer.nvidia.com/blog/nvidia-vera-rubin-pod-seven-chips-five-rack-scale-systems-one-ai-supercomputer/
  6. NVIDIA DGX-Ready Managed Services. www.nvidia.com/en-us/data-center/dgx-ready-managed-services/
  7. NVIDIA Case Study: AI Accelerates Research Innovation at Bristol Myers Squibb. www.nvidia.com/en-us/case-studies/computational-science-accelerates-research-innovation-at-bristol-myers-squibb/
  8. Mark III Systems: The Enterprise AI Factory Partner. www.markiiisys.com/
  9. Private Property Nigeria: Warehouse for sale, Ota Industrial Estate. privateproperty.ng/listings/warehouse-for-sale-ota-industrial-estate-ado-odo-ota-ogun-9PBFDQ
  10. NASA Earth Observatory: Blue Marble Next Generation. earthobservatory.nasa.gov/features/BlueMarble