Numerical Compute Kernels
Custom C/C++ kernels for linear algebra, FFTs, ODE solvers, optimisation, and image/signal processing — exposed to MATLAB via MEX, with SIMD/BLAS acceleration where it matters.
We engineer custom numerical compute kernels, MATLAB toolboxes, Simulink S-functions, MEX bridges, and embedded C/C++ replacements for control systems, signal processing, model-based design, and simulation workloads — for automotive, aerospace, energy, robotics, and research teams that need production-grade speed and traceability.
MEX · Simulink Coder · MISRA · AUTOSAR · HIL · Senior engineers

From custom numerical kernels to production-ready embedded codegen — engineered with the rigour automotive and aerospace processes demand.
Custom C/C++ kernels for linear algebra, FFTs, ODE solvers, optimisation, and image/signal processing — exposed to MATLAB via MEX, with SIMD/BLAS acceleration where it matters.
Domain-specific MATLAB toolboxes — control systems, communications, biomedical, finance — with documented APIs, examples, and unit tests engineering teams trust.
Custom Simulink blocks via S-functions (level-2 MATLAB and C MEX) — for hardware models, plant models, and proprietary algorithms with proper sample-time semantics.
Production-ready embedded C/C++ generated via Simulink Coder / Embedded Coder — AUTOSAR-classic and adaptive targets, MISRA-aware, with custom storage classes and timing budgets.
Hardware-in-the-Loop and Software-in-the-Loop rigs using Speedgoat, dSPACE, or custom RT targets — plus test harnesses, fault injection, and signal logging.
Re-implement MATLAB prototypes as production C++/Rust/Python services when MATLAB runtime, licensing, or deployment topology no longer fits.
Engineering teams in automotive, aerospace, energy, MedTech, robotics, and quant finance — wherever models meet production hardware.
Automotive
Aerospace
Energy & Power
MedTech
EdTech / Research
Quant Finance
Robotics
DefenceTech
Modern MATLAB/Simulink platforms, codegen toolchains, HIL targets, and static-analysis tools that engineering organisations actually run.
A six-step rhythm engineered so models survive Tier-1 audits, codegen lands on target hardware, and HIL closes the loop.
We review your existing models, requirements (often in DOORS or Polarion), sample-time architecture, fixed/floating point posture, and target hardware constraints.
Decomposition into model references and libraries, signal naming conventions, sample-time strategy, atomic subsystems, and traceability links to requirements.
Model implementation, S-functions and MEX bridges as needed, unit tests via Simulink Test, requirement-based test cases, and coverage measurement.
Embedded Coder configuration, MISRA-C compliance via Polyspace or custom rule packs, custom storage classes, and timing/memory budget verification.
Software-in-the-Loop and Hardware-in-the-Loop testing on Speedgoat or dSPACE rigs, fault injection, and back-to-back comparison against the model.
Documentation, training, version-control workflows (Git + Simulink Project), and a retainer for releases, MATLAB version upgrades, and new feature work.
Six commitments that decide whether your model-based engineering project ships safely — or stalls in code-review limbo.
Requirement traceability, MISRA compliance, sample-time correctness, and unit-tested models — the disciplines that decide whether your software passes a Tier-1 OEM audit.
Our engineers move comfortably between MATLAB/Simulink and C/C++. We can write a MEX, hand-write an embedded driver, and review the generated code — all in the same week.
We will tell you when MATLAB is the right home and when production really should be C++/Rust/Python — including a transparent migration plan and risk register.
Familiarity with AUTOSAR Classic and Adaptive, ISO 26262 process expectations, and safety-critical workflows — without claiming certifications we do not hold.
Model-based engineering rewards experience. Our seniors have shipped models that ended up in production vehicles, drones, and medical devices.
Weekly demos with model artefacts and HIL runs, direct access to engineers, signed SOWs with sample-time and target assumptions documented.
Pick the shape that matches whether you need a focused algorithm sprint, a programme squad, or migration off MATLAB.
Implement a specific algorithm or numerical kernel as a tested MATLAB function or MEX module, with documentation and example scripts — typically 4-6 weeks.
A senior squad — MBD, embedded C, test — building Simulink models, generating production code, and validating on HIL rigs as an extension of your engineering org.
Re-implement MATLAB code as production C++/Rust/Python services with numerical equivalence testing, performance benchmarks, and rollout support.
Representative MATLAB and Simulink projects engineered for EV, aerospace, industrial DSP, MedTech, energy, and quant finance.
Simulink BMS model with state-of-charge estimation, cell-balancing, and thermal management — Embedded Coder output deployed to an Infineon Aurix target with MISRA compliance.
Cascaded PID + EKF flight controller for a research drone — modelled in Simulink, validated on HIL, and code-generated to an STM32H7-based flight computer.
Custom MATLAB toolbox for a vibration-monitoring OEM — adaptive filtering, order tracking, and condition indicators with documented APIs and example scripts.
C++ MEX module for fast 3D image registration in a diagnostic-imaging product — SIMD-accelerated and benchmarked against the previous MATLAB-only path.
Real-time grid simulation on a Speedgoat target for a transmission utility — protection-relay HIL testing, fault injection, and result-logging pipelines.
Production migration of a MATLAB quant strategy to a Python + NumPy/Pandas stack with numerical equivalence tests and a 30-day shadow-run window before cutover.
Common questions engineering managers ask before bringing an external team into model-based engineering work.