EMT COMPUTE
EMT Aerospace Technologies · Research Lab

Turn your next question
into a computational experiment.

Scientific simulations. AI training. Robotics and drones. Put GPU resources and guided workflows to work on your own research, with results you can inspect.

A static showcase from EMT Aerospace Technologies S.r.l. GPU workloads run separately on EMT Compute using paid resources.

2 nodesin the recorded verification
16 H1008 GPUs per node
1,048,576matrix elements checked
16 reportswith declared calculation steps
One platform, several research paths

Choose the work you want to move forward.

EMT brings together aerospace R&D, artificial intelligence, robotics and autonomous systems. EMT Compute connects that engineering focus with accessible, on-demand computing workflows.

Experiments & simulation

Run your method.
Inspect the calculation.

Use a supported scientific preset or bring your own code. Compare parameter sets and collect results, provenance and program-declared calculation steps.

  1. Define inputs and the method.
  2. Select compatible GPU resources.
  3. Review outputs and recorded checks.
Inspect the matrix verification →
AI development

From training setup
to a usable model.

Guided choices for data, model, training method, resources and costs, with checkpoints. Deploy supported one-click models on a suitably sized single machine with HTTPS access.

  1. Prepare the dataset and model.
  2. Train and evaluate with checkpoints.
  3. Deploy a supported model preset.
Explore AI workflows ↗
Robotics, drones & autonomy

Compare policies
before physical trials.

Develop control strategies in simulation: locomotion, manipulation, drone flight and driving. Organize experiments around task settings and measurable outcomes.

  1. Choose the simulated task.
  2. Train and compare policies.
  3. Inspect outputs before transfer.

Physical deployment requires its own integration and validation.

Explore robotics workflows ↗

Workflow overviews describe supported product paths, not results from a robotics or model-training benchmark. Availability, licensing and workload compatibility apply.

Your method. Your data. Your next result.

Build beyond the preset.

Custom experiments

Make the calculation inspectable.

Bring your Python program, command and input files. Record equations, inputs, outputs and explanations with ctx.explain(...) or EMT_CALCULATION_JSON. Use independent parameter sweeps across nodes, or your own compatible distributed implementation.

AI training

Keep the history behind the model.

Inspect recipes, recorded loss and evaluation metrics, learning rate, gradient norm and runtime details. Export the complete event history. Observed dataset hashes help check remote-data continuity when resuming from a recorded checkpoint.

Start with a clear plan

Configure. Quote. Then run.

Begin with a guided experiment or prepare your own workload. Review resources, duration and the EUR rental quote before launch. Connect your tools through REST, Postman, n8n and MCP.

Release 0.9.1. Metrics are shown when recorded. Assigned or visible GPUs are distinct from actual device usage; calculations supplied by custom code remain attributable to its author. Older training checkpoints may lack a dataset-hash baseline.

Recorded GPU execution · 4 November 2026

A calculation you can follow.

Sixteen custom-code runs performed a float64 matrix multiplication on CUDA across two H100 nodes. Every saved element was checked against the expected result. Select a run to inspect its recorded sum.

The method

Multiply by a scaled identity matrix.

A[i,j] = i × 256 + j
B = s × I
C = A @ B = s × A

N = 256² = 65,536
sum(C) = s × N × (N − 1) / 2

Each run checks 65,536 elements. The analytical scalar sum provides a separate comparison with the CUDA result. This demonstrates the stated calculation, not general solver accuracy or GPU throughput.

Recorded CUDA sum
2,147,450,880
Analytical sum
2,147,450,880
Maximum element error: 0

Loading recorded data…

The selector reads saved results. It does not launch GPU work or perform a live benchmark.

The original test includes a deliberate 45-second pause to exercise worker allocation across both nodes. That time is not a matrix-performance measurement. This public extract excludes private account, job and infrastructure identifiers.

Scale the workload, preserve the evidence

GPU instances, nodes and clusters.

Run independent experiments across multiple workers, or use compatible distributed code when the method requires communication between nodes. Choose from current availability and review a fresh quote before launch.

A cluster does not automatically distribute arbitrary code. Interconnect performance must match the workload; the recorded test does not qualify InfiniBand/RDMA bandwidth.

Reports that explain what was recorded.

Inspect inputs, runtime, hashes, outputs, numerical checks and the calculation steps declared by the program. Custom experiments can record those steps with ctx.explain(...) or EMT_CALCULATION_JSON.

Reports document execution; they do not reconstruct missing intermediate steps or prove an arbitrary program correct.

Connect your tools

Bring compute into your workflow.

MCP

Connect a compatible client.

Connect to 21 tools for GPU resources, custom experiments and training inspection. Use an appropriately scoped API key and a client that supports authorization headers.

MCP setup and documentation ↗
n8n

Automate an experiment.

Import the downloadable workflow for quotes, budget checks, job observation and report retrieval. Paid launch is disabled by default.

Get the n8n workflow ↗
For research teams, laboratories & engineering companies

Bring a real problem. Define a useful pilot.

Tell us what you want to calculate, the data you have, your success criteria and timing. We can scope a paid pilot with agreed technical objectives and budget, then evaluate a continuing integration.

info@emtaerospacetechnologies.com