ComputeFlow
Operating system for global compute

Terafab builds compute. ComputeFlow routes it.

Paste a workload. ComputeFlow tells you where it should run — across cloud GPUs, private clusters, sovereign data centers, edge nodes, and future orbital and Terafab-scale supply — and exactly what trade-offs you are making.

Compute pools simulated
7
Scoring axes
6
cost · latency · energy · sovereignty · risk · availability
Routing time
<200ms
local, deterministic
Live routing surface
v0.1 · MVP
Compute pools onlineGlobal · sovereign · edge · orbital
Cloud GPU · US-East
58% • $1.9k/mo
Sovereign · EU
22% • $890/mo
Edge robotics
14% • 6ms p50
Terafab-scale (forward)
6% • reserved
Friendly rivalry

Two halves of the same future. Different bets.

The hard part of the next decade isn't only building compute. It's deciding where each workload should run. Terafab is going to win the first half. ComputeFlow is going to win the second.

Companies like Terafab
vs.

The factory bet

  • Builds chips
  • Owns infrastructure
  • Vertical integration
  • Capital-heavy
  • Physical scale
  • Years to ramp
  • One massive supply-side bet
ComputeFlow
vs.

The routing bet

  • Routes compute
  • Coordinates infrastructure
  • Software-defined
  • Asset-light
  • Network scale
  • Works now
  • Benefits from every new compute source online

“Owning compute is step one. Routing compute is step two.”

The problem

Owning compute is hard. Using it well is harder.

Every team running serious AI infrastructure is making the same routing decisions in slack threads, spreadsheets, and tribal knowledge. That doesn't scale.

Compute is fragmenting

Hyperscalers, neoclouds, sovereign clusters, private DCs, edge mesh, and tomorrow's orbital + GW-scale supply. No team can shop across all of it manually.

Trade-offs are invisible

Cost, latency, energy, sovereignty, and risk move together — but most teams pick a vendor on price, then discover the trade-offs later.

Sovereignty is now a hard constraint

Customer data, regulators, and procurement teams are all rewriting where workloads are allowed to run.

Capacity shocks are constant

Quota changes, outages, new supply coming online — your routing plan should change with them. Spreadsheets can't.

The solution

The neutral control plane for global compute

ComputeFlow makes every compute source — cloud, private, sovereign, edge, orbital, future GW-scale — feel like one programmable surface.

One control plane

Cloud GPUs, private clusters, sovereign DCs, edge, and orbital — all routed from one place, with one mental model.

Six-axis scoring

Cost, latency, energy, sovereignty, risk, and availability — scored locally, deterministically, every time.

Split routing by default

Never bet on one supplier. ComputeFlow recommends a weighted split across the top three pools.

Forward-routes new supply

When new compute comes online — anywhere — ComputeFlow turns it into usable capacity in the same UI.

How it works

From workload to routing plan in under a minute

ComputeFlow is the routing layer. Every workload runs through the same loop: define, score, split, explain.

Step
1 · Define the workload

Name it, pick a workload type, set budget, latency, energy, sovereignty, reliability, region, and urgency in plain UI.

Step
2 · Score every pool

Local scoring engine evaluates 7 compute pools across cost, latency, energy, sovereignty, risk, and availability.

Step
3 · Build a split plan

ComputeFlow returns a weighted split across the top three routes so you don't depend on a single supplier.

Step
4 · Explain in plain English

You get a recommendation, why it won, what trade-offs you made, and the exact operational next step.

Interactive preview

Try the routing engine. Right here.

No signup. No paid APIs. Adjust the workload, run the engine, and see how the routing plan changes in real time.

Workload definition

Local routing engine

Scoring runs locally. No paid APIs, no telemetry, no surprises.

Recommendation

Route Frontier-7B finetune to Private AI Datacenter

For a training workload with a $80,000 monthly envelope, Private AI Datacenter is the best primary route. We split 35% to Private AI Datacenter, 33% to Sovereign EU Cluster, and 32% to Research Supercomputing so you do not depend on a single supplier.

Blended monthly cost
$1,539
Across 3 routes · weighted by fit
Why this route won

Private AI Datacenter won on cost efficiency, operational reliability.

Operational next step

Provision a pilot allocation on Private AI Datacenter this week, mirror to the #2 pool for failover, then expand the split once steady-state cost and latency are confirmed.

Recommended split
35%
33%
32%
Private AI Datacenter
35% · $1,368/mo · 22ms
Sovereign EU Cluster
33% · $2,232/mo · 48ms
Research Supercomputing
32% · $1,008/mo · 65ms
#1 · private ai
Private AI Datacenter
Tier-1 colocation partner
Fit score
89/100
Primary
Cost76
Latency88
Energy71
Sovereignty70
Risk-adjusted100
Availability74
Allocation
35%
Est. monthly
$1,368
Median latency
22ms
Why it ranked here
  • Strong unit economics at ~$1.90/GPU-hr.
  • Median latency near 22ms suits this workload.
  • Operationally mature with 95% reliability history.
  • Pool is purpose-fit for training workloads.
#2 · sovereign
Sovereign EU Cluster
EU-only operator consortium
Fit score
86/100
Cost56
Latency74
Energy88
Sovereignty90
Risk-adjusted100
Availability67
Allocation
33%
Est. monthly
$2,232
Median latency
48ms
Why it ranked here
  • Median latency near 48ms suits this workload.
  • 88% clean energy mix.
  • Meets restricted data requirements with margin.
  • Operationally mature with 93% reliability history.
#3 · research hpc
Research Supercomputing
National lab partner pool
Fit score
82/100
Cost83
Latency64
Energy79
Sovereignty80
Risk-adjusted90
Availability42
Allocation
32%
Est. monthly
$1,008
Median latency
65ms
Why it ranked here
  • Strong unit economics at ~$1.40/GPU-hr.
  • Meets restricted data requirements with margin.
  • Operationally mature with 90% reliability history.
  • Pool is purpose-fit for training workloads.
Want this routed automatically as soon as new capacity comes online?
Set up auto-routing
The network

Seven compute pools. One programmable surface.

ComputeFlow already models the full stack of compute supply — from elastic cloud GPUs to orbital nodes and future GW-scale fab capacity.

public cloud
Hyperscale Cloud GPU

Elastic H100 / B200 capacity across major regions.

Latency
38ms
Clean
64%
$/h
$2.60
onlineus-east
private ai
Private AI Datacenter

Reserved GPU pods. Predictable cost, dedicated tenants.

Latency
22ms
Clean
71%
$/h
$1.90
onlineus-west
sovereign
Sovereign EU Cluster

Data never leaves the EU. Audited supply chain.

Latency
48ms
Clean
88%
$/h
$3.10
onlineeu
edge robotics
Edge Robotics Mesh

Millisecond inference next to the machines that need it.

Latency
6ms
Clean
58%
$/h
$3.40
onlineglobal
research hpc
Research Supercomputing

Cheap FLOPs for long-horizon training and physical simulation.

Latency
65ms
Clean
79%
$/h
$1.40
limitedglobal
orbital
Orbital Compute Node

Solar-only batch compute above the weather and the grid.

Latency
180ms
Clean
99%
$/h
$5.20
rampingorbital
terafab scale
Terafab-Scale Supplier Pool

When new GW-scale supply ships, ComputeFlow routes onto it.

Latency
30ms
Clean
76%
$/h
$1.10
futureglobal
Who it's for

Built for everyone running serious AI infrastructure

ComputeFlow is the routing layer, so it sits underneath whatever you're already building. It doesn't replace your stack. It coordinates it.

AI labs & model builders

Split training across private + research pools, pre-route inference to clouds, reserve forward capacity.

Enterprise AI platforms

Centralize cost, sovereignty, and risk policy across product teams without a procurement bottleneck.

Research & national labs

Stitch national HPC, sovereign clusters, and cloud bursts together for long-horizon simulation.

Robotics & embodied AI

Route real-time inference to edge mesh, batch training to private DCs, keep policies portable.

Aerospace & orbital

Forward-route batch workloads to orbital nodes when the energy and latency math works.

Sovereign + regulated

Hard data-residency policy at the routing layer — workloads never plan against forbidden pools.

Why now

The window is opening. The routing layer is unowned.

Compute supply is exploding. Sovereignty is hardening. AI is the workload. Five years from now, the routing layer is one of the most valuable software companies in infrastructure.

GW-scale supply is real

Companies like Terafab are racing to bring massive new compute online. That supply needs routing.

Sovereignty is rewriting the map

Regulators are forcing data residency. Routing has to become a first-class control.

Orbital + edge are coming

Off-grid compute is no longer a thought experiment. It needs a control plane the day it ships.

Every team is multi-vendor

Single-vendor lock-in is no longer acceptable. Routing across vendors is the new default.

AI is now the workload

Training and inference are the new center of gravity. Routing AI compute is the highest-leverage layer.

Risk is now a board topic

Outages, quotas, geopolitics. CIOs need a layer that adapts instead of failing over after the fact.

Pricing

Start free. Scale as capacity scales.

ComputeFlow is asset-light, so pricing is asset-light too. Pay for the routing intelligence, not the iron.

Free
$0/forever
Explore the router
  • 5 routing simulations / month
  • All 7 compute pools
  • Cost, latency, energy, sovereignty scores
  • Single-user, no saved scenarios
Start free
Pro
Most popular
$49/month
For founders + ML engineers
  • Unlimited routing simulations
  • Saved scenarios + scenario diffs
  • Deeper scoring + risk explanations
  • Cost forecast across 12 months
  • Email + slack delivery of reports
Start Pro trial
Team
$249/month
For platform + ML infra teams
  • Everything in Pro
  • Shared workload queues
  • Org budgets + spend alerts
  • Workload routing policies
  • Collaboration + audit trail
Talk to us
Enterprise
Custom
For sovereign + procurement programs
  • Private connectors to your clusters
  • SOC 2, ISO, residency controls
  • Custom routing policy engine
  • Procurement, SLAs, support pod
  • Onboard new compute as it appears
Contact sales
Roadmap

From routing UI to programmable control plane

We build in phases. Each phase is shippable on its own. Together they become the operating system for global compute.

Phase 1 · Routing engine
Shipping
  • Six-axis scoring across 7 compute pools
  • Recommended split allocation
  • Plain-English explanations and warnings
  • Command Center dashboard with simulated state
Phase 2 · Live capacity feeds
Next
  • Real-time pricing + quota feeds for public clouds
  • Connectors to private clusters and sovereign DCs
  • Org budgets, spend alerts, cost forecast
  • Routing policy engine (compliance + procurement)
Phase 3 · Programmable routing
Future
  • SDK + API for workload orchestration
  • Automatic re-routing on capacity / risk events
  • Marketplace for new compute supply
  • Forward-routing for orbital and GW-scale capacity
FAQ

Honest answers about the routing bet

Are you competing with Terafab?

No. Terafab is building compute. We make compute usable. Routing benefits from every new supply source coming online — including Terafab's. Different layer, friendly rivalry.

What does the MVP actually do?

You enter a workload, pick a type, set six constraints, and the local scoring engine returns a ranked routing plan with a recommended split, explanations, and an operational next step.

Where does the data come from?

The MVP runs a deterministic local model over seven simulated pools. Phase 2 adds live pricing, quota, and capacity feeds. No paid APIs are required for the MVP.

Do we install anything in our cloud?

No. ComputeFlow is software-defined and asset-light. You can run the routing layer side-by-side with your existing orchestration, then connect feeds in phase 2.

How does pricing work?

Free for exploration, Pro for individual operators, Team for platform teams, Enterprise for sovereign and procurement programs. We price the routing intelligence, not the iron.

Why is this an asset-light business?

Because the value is in the routing decision, not in owning the GPUs. Every new compute source that comes online — cloud, sovereign, edge, orbital, fab-scale — makes the routing layer more valuable, not less.

Final word

Don't bet on one factory. Route across all of them.

Whenever a new GPU lights up, a new cluster comes online, or a new compute source goes live, ComputeFlow turns it into usable capacity for your team.

Investor-grade thesis

“The future is not only who owns compute. It is who controls where compute flows.”

Owning compute is step one. Routing compute is step two. ComputeFlow is step two.