SimInTech Coder for Openclaw

An expert AI assistant specialized in developing embedded script code, block schemas, and dynamic simulation systems for the Russian modeling environment SimInTech.

producedbysavant
v1.0.0
May 25, 2026
0
585
0

Install & Download

1. ClawHub CLI

The fastest way to install a skill directly from the registry.

npx clawhub@latest install simintech-coder

2. Manual Installation

Copy the skill folder to one of these locations

Global
~/.openclaw/skills/
Workspace
<project>/skills/

Priority: Workspace > Local > Bundled

3. Prompt Installation

Copy this prompt to OpenClaw to install it automatically.

Help me install simintech-coder using Clawhub. If Clawhub is not installed, install it first (npm i -g clawhub).

Prefer to download?

Get the raw skill files in a ZIP archive.

What is SimInTech Coder?

SimInTech Coder is a specialized AI agent capability tailored for Openclaw Skills that provides expert-level assistance in writing, debugging, and architecting systems within the SimInTech dynamic modeling environment. It acts as an elite technical co-pilot for control systems engineers and developers who model intricate physical systems, design custom blocks, or program logic using the built-in SimInTech scripting language.

By leveraging this tool, engineering teams can streamline their workflows for designing mathematical models, developing regulatory loops like anti-windup PID controllers, and handling complex discrete-continuous state-space computations. It eliminates manual programming errors by enforcing precise template structures, structural syntax constraints, and standard architectural patterns native to modern version releases (2023+).

SimInTech Coder Use Cases

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How SimInTech Coder Works

  1. Context Assessment: The Openclaw Skills agent scans user queries for references to SimInTech constructs, dynamic control logic, or algorithmic scripts.
  2. Template Synthesis: The agent initializes code generations with the structural blueprint containing mandatory block sections (input:, output:, var:, init:, begin:).
  3. Syntax Engineering & Verification: It translates math operations and logic constructs into compliant lowercase keywords while applying specific naming conventions like PascalCase for blocks and camelCase for internal elements.
  4. Dynamic Loop Execution: Mathematical workflows are explicitly coupled with structural integration rules via native time-tracking loops (getStepSize() and getCurrentTime()).
  5. Guardrail Check: The generated output is automatically paired with defensive engineering principles, including division-by-zero checks, array bounds validation, and anti-windup protections.

SimInTech Coder Setup

To enable this capability within your developer environment, integrate it directly into your orchestration workflow using the command line:

openclaw install skill simintech-coder

Configure your workspace profile to point to your SimInTech project directory structure to let Openclaw Skills analyze your local blocks.

SimInTech Coder Data Schema & Taxonomy

The skill manages information pipelines and scripting layouts by enforcing a clean, structured schema layout. The runtime variables and static schemas are organized according to the following system definition structures:

Section Scope & Life Cycle Common Data Types
input: Initial configuration values and input signals. double, int, bool, string
output: Computational results or control signals passed down the block chain. double, int, bool
var: Persistent memory variables whose values persist across step cycles. Multi-dimensional arrays (double[2][2]), scalar values
init: Executes exactly once during simulation startup initialization. Initial state vectors, baseline assignments
begin: Executes on every delta step integration iteration cycle. Iterative control structures (if, for, while)

SimInTech Coder Advanced Features

  • Anti-Windup Control Integrations: Automatically applies saturation filters to integrals within feedback control systems to eliminate overshoot issues.
  • State Space Formulations: Designs multi-order discrete models leveraging matrix arrays and step-size calculations inside runtime blocks.
  • Implicit Integration Guards: Alerts users to switch to implicit integration methods for high-fidelity, long-duration dynamic simulation pipelines.
  • Physical Unit Label Tracking: Enforces semantic variable suffixes representing metric types (e.g., _s, _Hz, _C) to guarantee functional engineering compliance.

SKILL.md


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