🤖 AITL-H: Hybrid Structural Control Framework

Back to Samizo-AITL Portal Hybrid License

⚠️ Note
The AITL-H project is currently in the conceptual and testing stage.

  • Stability and response design rely on control theory (e.g., PID) as a prerequisite.
  • FSM and LLM are designed as outer supervisory / support layers, and are not part of the stability-guaranteed control loop.
  • The contents are conceptual ideas and partial PoC implementations, and are subject to change as further testing and development progress.

🆕 Update Log

Date Update Reference
2025-08-25 🚩 Added Humanoid Robot PoC (Flagship) to top PoC Page
2025-08-25 📑 Published 3 PoC reports (PWM Ripple / Thermal / Mission Energy) Docs Index
2025-08-25 🎤 Added template for presentation slides Slides

Language GitHub Pages 🌐 GitHub 💻
🇯🇵 Japanese GitHub Pages JP GitHub Repo JP
🇺🇸 English GitHub Pages EN GitHub Repo EN

🧭 Overview

Item Details
Name AITL-H (Hybrid)
Objective Establishing humanoid robot control methods using structural AI control
Core Principles - FSM: instinctive behavior control via state transitions
- PID: continuous control of physical quantities (angle, velocity)
- LLM: intelligence through advanced decision-making, dialogue, and learning

🧘 Three-Layer Architecture

Layer Function Implementation
FSM Layer Logic control based on state transitions fsm_engine.py, fsm_state_def.yaml
PID Layer Physical control of joints and motion quantities pid_controller.py, pid_module.py
LLM Layer Situation assessment, anomaly detection, language response llm_interface.py, llm_logger.py

Each layer is loosely coupled yet cooperative, allowing independent development and step-by-step integration.

flowchart TB
  subgraph LLM["LLM Layer"]
    L1[Decision-Making]
    L2[Anomaly Detection]
    L3[Language Response]
  end
  subgraph PID["PID Layer"]
    P1[Continuous Control]
    P2[Joint Angles / MIMO]
  end
  subgraph FSM["FSM Layer"]
    F1[Logic Control]
    F2[State Transitions]
  end

  LLM -->|Scenario / Commands| FSM
  FSM -->|Mode Control / Gain Select| PID
  PID -->|PWM / Control Signals| ACT["Actuators"]
  ACT -->|Motion Response| SEN["Sensors (IMU, etc.)"]
  SEN -->|Perception Feedback| LLM

🌏 Strategic Significance

AITL-H is not just a control architecture.
By integrating state feedback control and state transition control, and combining with LLMs and SystemDK, it achieves real-time optimal design under physical constraints.

This technology must be integrated now.
SystemDK is not unique to AITL-H but is an essential foundational technology for all advanced-node semiconductor designs.


Title Description Path
🚩 Humanoid Robot PoC (Flagship) Integrated flagship with FSM × PID × LLM × State-Space × Energy Harvesting View Manual View Repo
🧭 Gimbal Control (FSM + PID + LLM) Educational PoC for hybrid closed-loop control View Manual View Repo
⚙️ Verilog Auto-Generation (FSM + PID) YAML → C → Verilog conversion & verification View Manual View Repo
🛠 Auto Generator Tools for YAML → C → Verilog conversion of FSM/PID configs View Manual View Repo

🗺️ Project Relationship Map

flowchart TB
  EC["EduController
(Control Theory → AI Control)"]
  AITLH["AITL-H
Hybrid Control & SystemDK"]
  ESV["Edusemi-v4x
(SoC/RTL/Layout)"]

  EC -- Teaching Feed --> AITLH
  AITLH -- Methods & PoC Results --> ESV
  EC -- Cross Reference --> ESV

A simple diagram showing the cross-reference among EduController ⇔ AITL-H ⇔ Edusemi-v4x.


🤖 ChatGPT Support Tools

Provided in accelerated_design/: Design support tools using ChatGPT

A human-AI collaborative design framework.


🎛️ Connection with EduController

AITL-H is fully integrated with Chapter 9 (FSM × PID × LLM Hybrid Control) of the educational material EduController.

Part Content Relation to AITL-H
Part 01–05
View Repo
Classical to modern control theory (PID, state-space, etc.) Theoretical basis of PID layer
Part 06–08
View Repo
AI control (NN control, reinforcement learning, data-driven) Supplementary knowledge for AI application design
Part 09
View Site View Repo
FSM × PID × LLM integrated control AITL-H architecture implemented as educational material

🎓 Integrated Design Deployment with Edusemi-v4x

To extend towards SoC/RTL design, see the “Special Edition” of Edusemi-v4x, which covers:

Chapter Content Link
Chapter 3 SoC design with FSM × PID × LLM integrated control View Site View Repo
Chapter 4 RTL → GDSII layout automation with OpenLane View Site View Repo
Chapter 5 Physical verification and consistency check with DRC / LVS / DFM View Site View Repo

📌 If you want to study physical constraints in more depth

Once you understand the flow from SoC design to physical verification, proceed to Special Edition Chapter 2a: Handling Thermal, Stress, and Noise Constraints in SystemDK.

View Site
View Repo


Project Description Link
Edusemi-v4x Semiconductor / SoC design educational material 🌐 View Site 💻 View Repo
EduController Control theory × AI control educational material 🌐 View Site 💻 View Repo
SamizoGPT Project Design Hub guide management 🌐 View Site 💻 View Repo
AITL-Strategy-Proposal AITL strategic proposals and policy recommendations 🌐 View Site 💻 View Repo

👤 Author

📌 Item Details
Name Shinichi Samizo
Shinichi Samizo
Expertise Semiconductor devices (logic, memory, high-voltage mixed integration)
Inkjet thin-film piezo actuators
Productization of printheads, BOM management, ISO training
💻 GitHub GitHub

📄 License

Hybrid License

This project adopts a hybrid license
Depending on the nature of the educational materials, code, and figures, the following licenses apply.

📌 Item License Description
Code MIT License Free to use, modify, redistribute
Text materials CC BY 4.0 Attribution required
Figures & diagrams CC BY-NC 4.0 Non-commercial use only
External references Follow original license Clearly indicate source

💬 Feedback

Please submit improvement suggestions or start discussions via GitHub Discussions.

💬 GitHub Discussions