🤖 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
Education M.S. in Electrical and Electronic Engineering, Shinshu University
Career Former Engineer at Seiko Epson Corporation (since 1997)
Expertise Semiconductor devices (logic, memory, high-voltage mixed integration)
Inkjet thin-film piezo actuators
Productization of PrecisionCore printheads, BOM management, ISO training
✉️ Email Email
🐦 X X
💻 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