Solutions · AI/ML workloads

Source Training and Inference Capacity On-Chain

AI teams are capacity-constrained and price-taking. VirtEngine inverts the relationship: buy a listed plan outright, or describe what you need and let providers bid — capping the price with attribute matching if you prefer. Verify hardware through published benchmarks and pay only for metered usage from escrow you control.

Who this is for: ML teams that need training or inference capacity without hyperscaler lock-in.

An ethernet cable seated in a network switch port.
Training and inference over the same open interconnect.

At a glance

The short version for ai/ml workloads

The problem

The problem: allocation queues and opaque pricing

GPU allocation at major clouds means waitlists, committed-use contracts, and prices set by scarcity you can't see. Specialized GPU clouds improve price but reintroduce single-vendor risk — and rarely let you verify the hardware behind the SKU.

In one view

Audience-specific visual

Each solution gets its own explanatory figure — not the same template art.

  • Training / Inference / Fine-tuning
  • GPU memory ≥ X GB
  • Region + topology
  • → matching capacity

The mechanism

How the protocol carries it

From workload spec to settled GPU-hours.

How VirtEngine addresses it

Grounded in what the protocol actually does

Demand-side market power

Post an order specifying accelerators, memory, region, and required attributes; provider daemons bid against it. Competition happens per order, continuously — not per contract cycle. Benchmark records (x/benchmark) let you verify measured performance before accepting a bid or taking a listed plan.

Batch jobs on real HPC

Large training runs fit the HPC path: on-chain jobs with walltime and partition requirements executing on SLURM-class clusters through native adapters — supercomputing-grade interconnects included, no re-platforming on either side.

Protect the model itself

For proprietary weights and sensitive training data, require attested enclave execution (x/enclave) and encrypted secret delivery (x/encryption). Assess counterparty evidence, any offer-specific VEID proof, escrow terms, and on-chain history together; none removes all risk.

How it works

The path through the protocol, step by step

Select each step — the panel walks the sequence in order, from first action to settled outcome.

Step 1 · Describe

Describe the workload

Resources, accelerator classes, region, and attribute constraints go into a deployment spec — training or inference alike.

Step 2 · Require

Set placement requirements

Benchmarked hardware, audited attributes, or attested enclaves for proprietary weights and sensitive training data.

Step 3 · Fund

Fund escrow and post the order

Bids arrive from matching providers; you choose the winner. Escrow you control backs the lease.

Step 4 · Run

Run and monitor

Metered usage records and settlement state are queryable chain data. Idle budget returns when the deployment closes.

Step 5 · Protect

Protect the model itself

Require attested enclave execution and encrypted secret delivery for proprietary work. Counterparty risk stays bounded by VEID verification and on-chain reputation.

Economics

Economics

You fund escrow; providers draw against it only as metered usage settles — hourly records, 24-hour dispute window, anomaly detection before submission. Idle budget returns to you when the deployment closes. Cost control is structural, not a billing-alert afterthought.

Getting started

The path in

  1. Describe the workload

    Resources, accelerator classes, region, and attribute constraints in a deployment spec.

  2. Set placement requirements

    Benchmarked hardware, audited attributes, or attested enclaves as needed.

  3. Fund escrow and post the order

    Bids arrive from matching providers; you choose the winner.

  4. Monitor usage and settlement

    Metered records and settlement state are queryable chain data.

Questions

Asked about ai/ml workloads

Does this fit training runs, inference, or both?

Both. Interactive and inference workloads ride standard leases; large training runs fit the HPC path — on-chain jobs with walltime and partition requirements on SLURM-class clusters through native adapters.

HPC on VirtEngine

How do we verify the GPUs behind a bid?

Through published benchmark records (x/benchmark): measured performance data attached to the provider's on-chain identity, so you accept bids on evidence rather than SKU names.

How are models and training data protected?

Where the selected offer supports it, require attested enclave execution (x/enclave) and encrypted secret delivery (x/encryption); review provider attributes, audits, history, and any disclosed VEID proof requirement before committing.

More questions → FAQ

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