HPC & AI foundation · Intermediate

Reproducible HPC and AI Development: Containers, CI, Profiling and Evidence

A practical software-engineering system for repeatable builds, traceable datasets, benchmark gates and portable execution across workstations, servers and clusters.

Reproducibility is not only an academic concern. It is how an engineering team can explain a result, rebuild a service after failure and compare a proposed upgrade fairly. The unit of reproducibility is the whole run: code, dependencies, parameters, data, environment and hardware context.

Define the run contract

Every production or publishable run should identify the source commit, container or environment digest, parameter file, input dataset version, random seeds, hardware allocation and output location. A manifest written at job start is more reliable than reconstructing provenance later. Keep secrets and personal data out of manifests; store identifiers that point to governed systems.

Containers without losing HPC integration

OCI containers work well for development and services; Apptainer is widely used for batch HPC because it integrates with schedulers and shared filesystems without requiring a long-lived privileged daemon. Keep MPI and accelerator compatibility deliberate: either bind compatible host libraries or build against the deployment standard and test on target hardware.

Use small base images, pinned package versions and software bills of materials. Scan images, sign releases and rebuild regularly rather than carrying an unmaintained environment indefinitely.

CI that tests scientific and accelerated code

Split the pipeline into fast CPU unit tests, accelerator smoke tests, numerical regression tests and scheduled performance tests. Tolerances should reflect floating-point behaviour rather than assuming bitwise identity across every architecture. Preserve a small representative dataset in the test system and keep large or sensitive data behind controlled references.

AxiFoundry can host GPU-enabled runners; AxiGovernor adds controls-software build and simulation; AxiKeystone provides compilation and CPU test density. Queue expensive benchmarks so development feedback remains quick.

Benchmark as a release gate

Define throughput, latency, memory, accuracy and energy or utilisation measures appropriate to the workload. Compare against a named baseline and report variance over multiple runs. Reject changes that silently exceed memory, degrade tail latency or alter scientific outputs outside tolerance. Keep the benchmark harness alongside the source.

Profile the system, not only the kernel

Nsight Systems can expose CPU threads, CUDA calls and GPU activity on a common timeline. Combine it with operating-system, scheduler and storage metrics. A kernel optimisation is irrelevant if the job is waiting for file metadata; a data-loader change may be more valuable than lower kernel duration.

For multi-node runs, add network counters and collective timings. For services, add request traces and queue depth. Profiling should reproduce the real concurrency and input distribution.

Promotion and evidence pack

  1. Merge reviewed code to a protected branch.
  2. Build, scan and sign the immutable environment.
  3. Execute numerical and performance gates on a known Hyperion baseline.
  4. Publish artefacts, manifest, test results and benchmark comparison.
  5. Deploy with a versioned configuration and rollback target.
  6. Review live telemetry before declaring the release complete.

Primary technical references

References are provided for software architecture and implementation planning. Validate the versions, licences, support matrix and regulated-use requirements applicable to the final deployment.

From technical concept to production system

Apply this technology through an Axiotech engineering work package

Axiotech can connect the compute, AI or analytics platform to the machine controls, data contracts, validation evidence and lifecycle-support model required for industrial use.

Relevant Hyperion platforms

Hyperion X1140

AxiFoundry

A professional development and proof-of-concept node for CUDA, AI, data science and software engineering.

One 4U node; 96 AMD EPYC cores; 384GB ECC DDR5; one NVIDIA RTX PRO 4000 24GB; enterprise NVMe and remote management.

Hyperion X1260

AxiForge

A professional two-GPU training, visualisation and applied-research server for larger datasets and models.

One 4U node; 96 AMD EPYC cores; 768GB ECC DDR5; two NVIDIA RTX PRO 6000 96GB GPUs; 192GB aggregate VRAM and high-capacity NVMe scratch.

Hyperion X1140-C

AxiKeystone

A CPU- and memory-led HPC platform for simulation, genomics, analytics, compilation and workloads with large in-memory working sets.

One 4U node; 128 AMD EPYC cores; 1.15TB ECC DDR5; one NVIDIA RTX PRO 4000 24GB; enterprise U.2 NVMe.

Hyperion X1150-C

AxiGovernor

A controls-engineering and virtual-commissioning platform for TwinCAT, PLC, motion, simulation and private engineering AI.

One 4U node; 96 AMD EPYC cores; 768GB ECC DDR5; one NVIDIA RTX PRO 5000 48GB; engineering storage and remote management.

Hyperion X2160

AxiVector

A tightly coupled two-node simulation and mathematical-computing platform for MPI, CFD, FEA and optimisation.

Two 4U nodes; 256 AMD EPYC cores; 2.3TB aggregate ECC DDR5; two 96GB GPUs; direct 100GbE RoCEv2 RDMA between nodes.

Hyperion X3140

AxiLattice

A shared departmental CPU-compute facility for research pipelines, simulation, genomics and queued multi-user work.

Three 4U nodes; 384 AMD EPYC cores; 3.4TB aggregate ECC DDR5; three professional GPUs; switched 100GbE RDMA, 25GbE storage and Slurm.

Configuration and quotation

Validate this workload on Hyperion

Final architecture and price depend on representative code and data, concurrency, storage, networking, site infrastructure, component availability and export compliance.

Request Formal Quotation