Ensigncode delivers CUDA software development as a complete, scoped project rather than staff augmentation: we own kernel design, profiling-driven optimization, and production integration from a defined starting point to a measured, delivered result. Every project follows a measurement-first process, baseline, profile, implement, validate, and re-benchmark, so the delivered speedup is proven, not assumed.

Some GPU performance problems aren’t a staffing gap, they’re a defined piece of engineering work with a clear start and end point. Ensigncode’s CUDA software development services deliver exactly that: a scoped project with a fixed deliverable, built by engineers who profile first, implement second, and hand over a measured benchmark report alongside the code.

Need ongoing capacity instead of a fixed-scope project? See Hire CUDA Engineers for placements or CUDA Developers for Hire for flexible, specialty-matched engagement. All three build on the same CUDA engineering foundation.

What We Deliver

A CUDA software development engagement produces working, tested, production-ready code, not a report or a recommendation.

  • Custom CUDA kernels for GEMM, SpMM, and other compute-heavy operations
  • Stable C++ APIs with Python bindings (PyBind11, PyTorch extensions)
  • Integrated inference pipelines with batching and scheduling tuned for your traffic
  • A benchmark report showing baseline versus delivered performance
  • Deployment-ready packaging, build configuration, and correctness tests

Our Development Process

The same measurement-first standard applies regardless of project size: establish a baseline, change one variable, benchmark, and report reproducible results.

  • Scoping: define the workload, target hardware, and success metric upfront
  • Baseline profiling with Nsight Systems and Nsight Compute before any code changes
  • Implementation: kernel design, memory optimization, or integration work as scoped
  • Numerical validation to confirm correctness and precision haven't regressed
  • Final benchmarking against the original baseline, delivered with the code

Project Types We Take On

From a single optimized kernel to a full inference pipeline rebuild.

  • Custom kernel development for operations library defaults don't cover well
  • End-to-end GPU inference pipeline design and implementation
  • C++/Python integration layers exposing optimized GPU code to your application
  • Multi-GPU and rack-scale tuning for H100, B200, and GB200 NVL72 systems
  • Legacy CUDA codebase modernization and performance recovery

Why Run This as a Project, Not a Staff Hire

  • Fixed scope and defined deliverable, not an open-ended hourly engagement
  • A measured benchmark report delivered alongside the code
  • No ramp-up time lost to onboarding a new hire into your codebase
  • Access to all six GPU specialist disciplines within one engagement
  • Full IP ownership of everything delivered, under NDA from day one

FAQ

Frequently Asked Questions

How is this different from hiring a CUDA engineer?

Hiring places a person into your team on an ongoing basis. CUDA software development is a scoped project: we define a deliverable, build it, validate it, and hand over working code and a benchmark report. It suits a defined piece of work better than an open-ended staffing need.

How do you scope a CUDA development project?

We start with your target workload, hardware, and success metric, then baseline-profile the current state with Nsight before estimating effort. Scope is defined against measured data, not a guess at how long kernel work "usually" takes.

What do I actually receive at the end of the project?

Working, tested code (kernels, APIs, or an integrated pipeline, depending on scope), deployment packaging, correctness tests, and a benchmark report comparing the delivered performance against the original baseline.

Can you take over an existing CUDA codebase rather than start from scratch?

Yes. Legacy CUDA modernization and performance recovery on an existing codebase is a common project type. We profile the existing code first to find where it's actually losing performance before changing anything.

Do you validate numerical correctness, not just speed?

Yes. Every project includes correctness tests and reference comparisons, particularly important when precision changes (FP16, INT8, FP4) are part of the optimization, so a delivered speedup never comes at the cost of silently wrong results.

Let us build it together

Maximize Performance. Minimize GPU Costs.

Whether you are optimising CUDA kernels, scaling multi-GPU clusters, or deploying LLM inference, our engineers help you ship faster and spend less. Get a free performance assessment of your current setup.