matlab-deploy-embedded-code Skill
Deploy MATLAB-generierten C/C++ Code auf Embedded-Hardware wie STM32 und Raspberry Pi mittels ERT-basierter Konfigurationen und PIL-Verifizierung.
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- 9. Nov. 2026
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Was macht der matlab-deploy-embedded-code Skill?
matlab-deploy-embedded-code ist ein Agent Skill. Deploy MATLAB-generierten C/C++ Code auf Embedded-Hardware wie STM32 und Raspberry Pi mittels ERT-basierter Konfigurationen und PIL-Verifizierung.
Zusammenfassung erzeugt aus der SKILL.md des Skills.
Über den matlab-deploy-embedded-code skill
Das Deployment von produktionsreifem C- oder C++ Code auf Embedded-Hardware wie STM32-Mikrocontroller oder Raspberry Pi-Boards ist die Hauptfunktion dieses Skills. Er wurde für Ingenieure entwickelt, die den Übergang von MATLAB-Algorithmen zu Bare-Metal- oder Embedded-Linux-Umgebungen vollziehen müssen. Durch die Nutzung von Embedded Coder mit ERT-basierten Konfigurationen generiert das Tool Code, der ohne OS-Abhängigkeiten läuft, was ihn ideal für ressourcenbeschränkte Geräte macht.
User können hardware-spezifische Constraints verwalten, indem sie die dynamische Speicherallokation deaktivieren, um nicht-deterministische Heap-Nutzung zu verhindern, und maximale Stack-Limits basierend auf dem verfügbaren SRAM festlegen. Der Skill unterstützt zudem die Performance-Optimierung durch SIMD-Vektorisierung für ARM Cortex-A Targets sowie die Nutzung von Code Replacement Libraries wie ARM Cortex-A CMSIS. Um die mathematische Genauigkeit auf physischer Hardware sicherzustellen, ermöglicht er eine Verifizierungsschritte von MEX und Software-in-the-Loop (SIL) bis hin zu Processor-in-the-Loop (PIL) Testing, welches die Hardware-Outputs via Serial- oder SSH-Verbindungen mit den MATLAB-Ergebnissen vergleicht.
Was ein agent damit machen kann
- 1Bare-Metal C Code-Generierung konfigurierenRichte eine ERT-basierte Konfiguration ein, um C-Code für einen Mikrocontroller ohne OS-Abhängigkeiten zu generieren.
- 2Performance für ARM-Targets optimierenAktiviere SIMD-Intrinsics und herstelleroptimierte Math-Libraries für High-Performance-Verarbeitung auf ARM Cortex-A.
- 3Code auf physischer Hardware verifizierenFühre Processor-in-the-Loop Testing durch, um Präzisionsunterschiede und Memory-Probleme auf einem echten Board zu finden.
- 4Speichermanagement für MikrocontrollerDeaktiviere die dynamische Speicherallokation, um sicherzustellen, dass alle Arrays für Targets ohne Heap zur Compile-Zeit begrenzt sind.
Geschrieben basierend auf dem SKILL.md des skills. Jeder use case wurde gegen ein zitat daraus geprüft.
So installierst du den matlab-deploy-embedded-code Skill
Jeder Befehl kopiert den Skill-Ordner in das Skills-Verzeichnis des Clients. Starte den Client neu oder beginne eine neue Session, um ihn zu laden.Den matlab-deploy-embedded-code Skill in Claude Code installieren
~/.claude/skills/matlab-deploy-embedded-code/SKILL.md
$ npx degit matlab/matlab-agentic-toolkit/skills-catalog/code-generation/matlab-deploy-embedded-code ~/.claude/skills/matlab-deploy-embedded-codeDen matlab-deploy-embedded-code Skill in Claude Code (project) installieren
.claude/skills/matlab-deploy-embedded-code/SKILL.md
$ npx degit matlab/matlab-agentic-toolkit/skills-catalog/code-generation/matlab-deploy-embedded-code .claude/skills/matlab-deploy-embedded-codeDen matlab-deploy-embedded-code Skill in Codex installieren
~/.agents/skills/matlab-deploy-embedded-code/SKILL.md
$ npx degit matlab/matlab-agentic-toolkit/skills-catalog/code-generation/matlab-deploy-embedded-code ~/.agents/skills/matlab-deploy-embedded-codeDen matlab-deploy-embedded-code Skill in Gemini CLI installieren
~/.gemini/skills/matlab-deploy-embedded-code/SKILL.md
$ npx degit matlab/matlab-agentic-toolkit/skills-catalog/code-generation/matlab-deploy-embedded-code ~/.gemini/skills/matlab-deploy-embedded-codeDen matlab-deploy-embedded-code Skill in Claude.ai installieren
npx degit matlab/matlab-agentic-toolkit/skills-catalog/code-generation/matlab-deploy-embedded-code matlab-deploy-embedded-code && zip -r matlab-deploy-embedded-code.zip matlab-deploy-embedded-code # claude.ai → Customize → Skills → + → Create skill → Upload a skill → matlab-deploy-embedded-code.zip
Automatisierte Checks
Geluften am 15. Nov. 2026Vollständiger Bericht →Noch nicht verifiziert. Ein Skill braucht 80 Punkte, keinen schweren Befund und genug Daten für unsere Prüfung. Wie die Checks funktionieren
- Source Repository verknüpft und erreichbarmatlab/matlab-agentic-toolkit/skills-catalog/code-generation/matlab-deploy-embedded-code is public and reachablegithub.com/matlab/matlab-agentic-toolkit/tree/HEAD/skills-ca ↗Bestanden
- Open Source Lizenz (OSI)License named in a file, not as an SPDX idNicht geprüft
- Commit oder Release im letzten JahrLast commit 2026-11-09github.com/matlab/matlab-agentic-toolkit/commits ↗Bestanden
- Keine Download-und-Ausführen-Muster oder Zugangsdatendiebstahl in SkriptenNo scripts in the skill folderBestanden
- Keine versteckten Anweisungen in SKILL.mdNo override phrases, safeguard switches, credential requests or hidden charactersgithub.com/matlab/matlab-agentic-toolkit/blob/HEAD/skills-ca ↗Bestanden
- Vorab erlaubte Tools sind eingeschränktNo pre-approved tools; the agent asks before using onegithub.com/matlab/matlab-agentic-toolkit/blob/HEAD/skills-ca ↗Bestanden
- SKILL.md folgt dem Agent-Skills-FormatValid name and description; says when to use it; 245 linesgithub.com/matlab/matlab-agentic-toolkit/blob/HEAD/skills-ca ↗Bestanden
SKILL.md
Auf GitHub ansehenDeploy Embedded Code
Configure MATLAB Coder with Embedded Coder for production-quality code generation targeting embedded hardware, and verify correctness with processor-in-the-loop (PIL) testing.
When to Use
- Generating C/C++ code for a microcontroller or embedded Linux board
- Setting up PIL or SIL verification for generated code
- Configuring code generation with no dynamic memory allocation
- Configuring Embedded Coder for an AI model entry-point function prepared by
matlab-deploy-embedded-ai; for the full AI compression and model-loading workflow, triggermatlab-deploy-embedded-aifirst - Selecting a hardware target board (STM32, Raspberry Pi)
When NOT to Use
- Generating MEX or desktop libraries — use standard
codegenworkflows - Simulink-based deployment — use Simulink Coder / Embedded Coder workflows directly
- GPU code generation (CUDA) — use GPU Coder
Workflow
1. Create an ERT-Based Configuration
cfg = coder.config("lib", "ecoder", true);
The "ecoder", true flag creates an ERT-based (Embedded Real-Time) configuration
that generates production-quality code with no OS dependencies.
2. Select Target Hardware
With coder.hardware:
cfg.Hardware = coder.hardware("STM32F746G-Discovery");
Without the support package, configure hardware manually:
cfg.HardwareImplementation.ProdHWDeviceType = 'ARM Compatible->ARM Cortex-M';
cfg.HardwareImplementation.ProdBitPerFloat = 32;
cfg.HardwareImplementation.ProdBitPerDouble = 64;
See references/supported-hardware.md for the full list of supported boards and
their constraints.
3. Configure Memory for Bare-Metal Targets
cfg.EnableDynamicMemoryAllocation = false;
cfg.StackUsageMax = 512;
EnableDynamicMemoryAllocation = false— disablesmalloc/freefor targets where heap is unavailable or non-deterministic. All arrays must be bounded at compile time.StackUsageMax— set based on target SRAM. The code generation report shows actual usage after compilation.
For entry-points that use deep learning inference (invoke, predict):
cfg.DeepLearningConfig = coder.DeepLearningConfig('none');
cfg.LargeConstantGeneration = "KeepInSourceFiles";
DeepLearningConfig('none')— generates C with no external DL library dependencies (MKL-DNN, cuDNN, TensorRT). Required for bare-metal targets. Without this, codegen may attempt to link an unavailable library and fail.LargeConstantGeneration = "KeepInSourceFiles"— keeps weight constants in source files rather than separate data files. Needed for bare-metal targets where external data file linking is unsupported.
4. Configure Performance (SIMD and OpenMP)
SIMD vectorization for embedded ARM targets:
cfg.InstructionSetExtensions = 'Neon v7'; % ARM Cortex-A (128-bit, 4x float32)
| Target | Value | Notes |
|---|---|---|
| ARM Cortex-A (Raspberry Pi) | 'Neon v7' |
128-bit SIMD |
| ARM Cortex-M | Do not set — use CodeReplacementLibrary instead |
Different mechanism |
For non-embedded targets (Intel x86-64 and the full InstructionSetExtensions
ladder), OptimizeReductions, and OpenMP, see the matlab-generate-code skill.
For the MATLAB Coder ↔ Simulink Coder property naming duality, see
references/simulink-config.md.
Code replacement library (CRL) — routes supported ops to vendor-optimized math library implementations.
On Cortex-A: set BOTH InstructionSetExtensions AND a non-SIMD CodeReplacementLibrary.
They target different layers. ISE emits NEON SIMD intrinsics inline for
vectorizable loops in generated code. A non-SIMD CRL routes higher-level math
ops — trig, filtering, matrix — to library implementations you don't have to
generate. ARM Cortex-A CMSIS maps to the ARM CMSIS-DSP library (hand-tuned
Cortex-A kernels shipped by ARM); it does not itself emit NEON, so it composes
with an explicit InstructionSetExtensions = 'Neon v7'. Setting only one of
ISE or CRL leaves performance on the table:
cfg.HardwareImplementation.ProdHWDeviceType = 'ARM Compatible->ARM Cortex-A';
cfg.InstructionSetExtensions = 'Neon v7'; % SIMD intrinsics (also shown in §4 above)
cfg.CodeReplacementLibrary = 'ARM Cortex-A CMSIS'; % non-SIMD CRL — routes math ops to CMSIS-DSP
For Cortex-M, select the CRL matching your compiler (e.g. 'ARM Cortex-M' for
generic; vendor-specific CRLs are shipped with the corresponding support
package). Cortex-M does not use InstructionSetExtensions.
OpenMP — enable on multi-core targets (Cortex-A); disable on single-core (Cortex-M — no OS/threading support, will fail to compile):
cfg.EnableOpenMP = true; % multi-core targets (Cortex-A)
cfg.EnableOpenMP = false; % single-core targets (Cortex-M)
5. Set Up PIL Verification
PIL compiles the generated code, deploys it to the physical board, sends test vectors, and compares outputs against MATLAB. This catches precision differences, stack overflows, and memory issues that SIL cannot detect.
Cortex-M (serial transport):
cfg.VerificationMode = "PIL";
cfg.Hardware.PILInterface = "Serial";
cfg.Hardware.PILCOMPort = "COM4"; % adjust to your system
Cortex-A / Raspberry Pi (SSH transport):
cfg.VerificationMode = "PIL";
cfg.Hardware = coder.hardware("Raspberry Pi");
cfg.Hardware.DeviceAddress = "192.168.1.10";
cfg.Hardware.Username = "<your-pi-username>";
cfg.Hardware.Password = "<your-pi-password>";
cfg.Hardware.BuildDir = "/home/pi/mymodel"; % optional: defaults to /home/pi/MATLAB_ws/<release>
Pi PIL runs over SSH (not serial). The support package uses DeviceAddress,
Username, and Password to establish the SSH connection. BuildDir specifies
where the compiled binary is deployed on the target; if omitted, defaults to
/home/pi/MATLAB_ws/<release>/. Do not set PILInterface or PILCOMPort — those
are for serial-connected bare-metal boards only.
6. Generate Code
cfg.TargetLang = "C";
codegen -config cfg -args {inputArgs} myEntryPoint
7. Verify with the MEX → SIL → PIL Progression
For confidence in deployment, follow this sequence:
- MEX — verify on host, fast iteration
- SIL (Software-in-the-Loop) — run generated code on host, compare to MATLAB
- PIL (Processor-in-the-Loop) — run on actual hardware, compare to MATLAB
cfgSil = coder.config("lib", "ecoder", true);
cfgSil.VerificationMode = "SIL";
codegen -config cfgSil -args {inputArgs} myEntryPoint
Key Properties
| Property | Values | Purpose |
|---|---|---|
VerificationMode |
"PIL", "SIL", "None" |
Enable in-the-loop verification |
Hardware |
coder.hardware(boardName) |
Select target board |
Hardware.PILInterface |
"Serial" |
PIL communication type |
Hardware.PILCOMPort |
"COM4", "/dev/ttyACM0" |
Serial port |
EnableDynamicMemoryAllocation |
true (default), false |
Master switch for heap |
DynamicMemoryAllocationThreshold |
numeric (bytes), default 65536 | Arrays above this use heap |
LargeConstantGeneration |
"KeepInSourceFiles", "WriteOnlyDNNConstantsToDataFiles" |
Where to put large constants |
StackUsageMax |
numeric (bytes) | Stack limit for generated code (Simulink: MaxStackSize) |
EnableOpenMP |
boolean | OpenMP multi-threading (Simulink: MultiThreadedLoops) |
CodeReplacementLibrary |
"ARM Cortex-A CMSIS", "GCC ARM Cortex-A" (SIMD), "ARM Cortex-M", … |
Vendor-optimized op replacements. GCC ARM Cortex-A is a SIMD CRL — do not pair with an explicit ISE. MATLAB warns it is not recommended; use "ARM Cortex-A CMSIS" instead |
TargetLang |
"C", "C++" |
Output language |
Simulink Coder path (
slbuild): properties in the "Simulink:" column above are set viaset_param(modelName, 'PropertyName', value)directly on the model name. Seereferences/simulink-config.mdfor the full Simulink Coder property mapping and code examples.
Common Mistakes
| Mistake | Why It's Wrong | Correct Approach |
|---|---|---|
DynamicMemoryAllocation = "Off" |
Wrong property name and type | EnableDynamicMemoryAllocation = false (boolean) |
| Skipping SIL before PIL | PIL failures on hardware are harder to debug | Always validate with SIL first |
Not setting StackUsageMax |
Default may exceed target SRAM | Set explicitly based on hardware constraints |
Using cfg = coder.config("lib") without "ecoder", true |
Creates a generic config, not ERT-based | Always pass "ecoder", true for embedded targets |
Conventions
- Always: use
coder.config("lib", "ecoder", true)for embedded targets - Always: disable dynamic memory for bare-metal Cortex-M targets
- Always: follow MEX → SIL → PIL verification order
- Never: use
DynamicMemoryAllocation(wrong property name — it'sEnableDynamicMemoryAllocation) - Prefer:
TargetLang = "C"for Cortex-M targets (smaller code footprint)
References
references/supported-hardware.md— board specs, support packages, and PIL interface detailsreferences/simulink-config.md— Simulink Coder property naming,set_parampatterns, andslbuildcode examples
See Also
matlab-generate-code— generic codegen foundation: coder directives, screener, MEX generation, SIL, config tuning, SIMD/OpenMP for non-embedded targetsmatlab-deploy-ai-model— full AI model codegen pipeline (load, verify, generate MEX/lib)
Copyright 2026 The MathWorks, Inc.
Dateien in diesem Skill
4matlab-deploy-embedded-code Skill-Fragen
Wie installiere ich den matlab-deploy-embedded-code Skill in Claude Code?
Führe npx degit matlab/matlab-agentic-toolkit/skills-catalog/code-generation/matlab-deploy-embedded-code ~/.claude/skills/matlab-deploy-embedded-code aus. Claude Code lädt Skills aus ~/.claude/skills (alle Projekte) oder .claude/skills (ein Projekt) und nutzt einen Skill, wenn seine Beschreibung zur Aufgabe passt.
Welche Clients können den matlab-deploy-embedded-code Skill nutzen?
Jeder Client, der das Agent Skills-Format liest: Claude Code, Codex, Gemini CLI und claude.ai (als ZIP hochladen). Skripte im Skill laufen nur dort, wo der Client Codeausführung erlaubt.
Wie erstelle ich eine ERT-basierte Konfiguration für Embedded-Targets?
Nutze den Befehl cfg = coder.config("lib", "ecoder", true);, um eine Embedded Real-Time Konfiguration zu erstellen, die produktionsreifen Code ohne OS-Abhängigkeiten generiert.
Was ist die empfohlene Verifizierungsschritte für den generierten Code?
Für maximale Sicherheit solltest du der Sequenz MEX → SIL (Software-in-the-Loop) → PIL (Processor-in-the-Loop) folgen.
Wie kann ich die dynamische Speicherallokation für Bare-Metal-Targets deaktivieren?
Setze die Property cfg.EnableDynamicMemoryAllocation = false;, um malloc/free zu deaktivieren. Das ist notwendig für Targets, bei denen der Heap nicht verfügbar oder nicht deterministisch ist.