Course 7 – Beyond Deep Learning Gen AI with RGMs through Active Inference

Denise Holt · December 11, 2024

This course presents an in-depth study of Renormalizing Generative Models (RGMs), the next evolution in AI technology.

Students will explore how RGMs overcome deep learning limitations by providing a unified, scale-free approach to diverse AI tasks, from perception and learning to decision-making. Unlike traditional models, RGMs operate on the Free Energy Principle, enabling them to adapt and optimize in real time with minimal data requirements. Through hierarchical and recursive processing, RGMs mimic human-like reasoning, understanding, and prediction across multiple scales of data.

This course offers insights into RGMs’ applications across fields like autonomous systems, healthcare, and climate modeling, preparing students to understand and utilize this revolutionary framework in dynamic, real-world scenarios.


COURSE OUTLINE:

Module 1: Introduction to RGMs and the Evolution of AI

This module introduces Renormalizing Generative Models (RGMs) as a transformative advancement in Active Inference AI. Operating within a scale-free framework, RGMs simplify complex data, require less training data, and adapt dynamically to changing environments. Rooted in the Free Energy Principle, they are energy-efficient and versatile, offering superior performance across tasks like perception, reasoning, and decision-making while addressing the limitations of deep learning.

Module 2: Key Innovations and The Science Behind RGMs

This module examines the core scientific principles of RGMs, explaining how RGMs use renormalization and multiscale learning to simplify complex systems and process data hierarchically. This approach allows RGMs to understand both fine details and broader patterns, making them versatile and able to adapt and generalize across tasks with unmatched efficiency.

Module 3: Active Inference and Conceptual Modeling

This module focuses on Active Inference, one of the foundational principles behind RGMs, and explains how RGMs go beyond pattern recognition by developing a conceptual understanding of data.  By modeling relationships and cause-and-effect dynamics across scales, RGMs integrate fine details with broader contexts. This enables them to adapt intelligently and make informed decisions in complex environments, outperforming traditional AI in accuracy and relevance.

Module 4: Advanced Learning and Decision-Making Processes in RGMs

This module explores the decision-making mechanisms of RGMs, such as discrete state-space representation, which simplify complex data into clear categories, making decision-making faster and more reliable. It also examines the use of Markov Decision Processes and highlights how RGMs integrate perception and planning into a unified model.

Module 5: Application of RGMs Across Various Domains

This module presents the diverse real-world applications of Renormalizing Generative Models (RGMs), showcasing their capabilities in image classification, video compression, audio processing, and strategic decision-making in game play. RGMs demonstrate superior performance in data efficiency, achieving high accuracy with significantly less training data compared to traditional deep learning models. The module highlights key innovations, such as recursive block transformations, dimensionality reduction, and hierarchical pattern recognition. By leveraging their ability to quantify uncertainty and adapt dynamically to real-time data, RGMs offer a transformative approach to solving complex challenges across industries, outperforming traditional AI systems in both efficiency and scalability.

Module 6: The Future of RGMs: The Spatial Web, Future Systems, and Society

This module focuses on the future potential of RGMs in conjunction with the Spatial Web, exploring how RGMs enhance autonomy, self-organization, and the larger implications for AI in society. Here we examine the integration of Renormalizing Generative Models (RGMs) with the Spatial Web to enable seamless operations across digital and physical environments. Using protocols like HSTP and HSML, RGMs support context-aware decision-making and real-time data exchange. Applications include smart cities, healthcare, and logistics, where RGMs optimize operations with scalability, adaptability, and interoperability. This module emphasizes RGMs’ scalability, adaptability, and ability to unify diverse AI systems, making them a cornerstone of decentralized and interoperable AI ecosystems.


 

Glossary of Terms

Course 7 - Beyond Deep Learning Gen AI With RGMs through Active Inference

A

Active Inference – A predictive AI framework based on the Free Energy Principle, where Intelligent Agents minimize uncertainty by continuously updating their internal models through perception, learning, and action.

Active Learning – A learning strategy where AI prioritizes gathering the most informative data points to refine its models, reducing data requirements.

Active Selection – The process of AI choosing the best action from multiple possibilities based on predicted future outcomes.

Adaptive AI – AI that continuously adjusts to real-world changes by dynamically updating its models instead of relying on static training data.

B

Beyond Generative AI – The shift from traditional Generative AI models (like ChatGPT and DALL-E) to more advanced frameworks like Renormalizing Generative Models (RGMs) that integrate reasoning, learning, and decision-making.

Black Box Problem – A limitation of deep learning where AI models produce outputs without transparent, interpretable decision-making processes.

C

Causal Learning – AI’s ability to understand cause-and-effect relationships rather than just recognizing statistical correlations in data.

Conceptual Modeling – The ability of AI to understand and represent abstract concepts and relationships between data points rather than just recognizing patterns.

Coarse-Graining – A process in which AI reduces complexity by simplifying data into hierarchical structures while preserving essential relationships.

Computable Context – AI’s ability to interpret and act upon contextualized digital and physical information using structured data.

D

Deep Learning – A subset of machine learning that relies on large-scale neural networks, but struggles with adaptability, efficiency, and interpretability compared to RGMs.

Discrete State-Space Representation – A categorization method where AI assigns distinct labels to data states (e.g., "hot" vs. "cold"), improving interpretability.

Dynamic Adaptation – The ability of AI to continuously refine its model based on real-world interactions and changing conditions.

E

Energy-Efficient AI – AI systems designed to operate with minimal energy consumption by leveraging renormalization and Active Inference to optimize processing.

Explainable AI (XAI) – AI models designed with transparency, ensuring their decision-making process is interpretable and trustworthy.

F

Free Energy Principle – A foundational neuroscience and AI concept, developed by Karl Friston, which states that intelligent systems seek to minimize uncertainty by continuously refining their models.

G

Generalization in AI – The ability of AI to apply learned knowledge across different domains and tasks without requiring extensive retraining.

H

Hierarchical Data Processing – AI’s capability to analyze data at multiple levels of abstraction, from fine-grained details to broad contextual understanding.

Holon Architecture – A nested ecosystem where each Intelligent Agent functions both autonomously and as part of a larger intelligent system.

I

Intelligent Agent – An autonomous system that perceives its environment, updates its beliefs, plans and takes actions using Active Inference principles.

Interpretability in AI – The ability to understand and explain how AI systems arrive at their conclusions, a major advantage of RGMs over traditional deep learning models.

Interoperability – The seamless integration of AI models, data, and digital environments, allowing Intelligent Agents to work across multiple domains.

M

Markov Decision Process (MDP) in Reinforcement Learning – A reinforcement learning framework where AI makes decisions based only on the current state, without considering past events.

Markov Decision Process (MDP) in RGMs - MDPs extend beyond single-state decision-making by incorporating paths as latent variables, meaning that decisions consider entire sequences of past states and actions, not just the present. This path-based approach enhances AI’s ability to improve decision-making, understand complex behaviors and dependencies, infer optimal long-term strategies, and adapt dynamically.

Multiscale Learning – AI’s ability to learn across different levels of abstraction, from micro-level details to high-level strategic planning.

N

Neural-Symbolic AI – A hybrid AI approach that integrates deep learning (neural networks) with symbolic reasoning to improve adaptability and understanding.

P

Perception and Planning Integration – The unification of perception (recognizing patterns) and planning (choosing actions) within a single AI model, a core capability of RGMs.

Predictive Coding – A process where AI generates expectations about incoming data and refines its understanding based on whether those expectations align with reality.

Path-Based Planning – AI’s method of predicting and selecting optimal decision-making paths based on learned conceptual models.

R

Real-Time Learning – AI’s ability to continuously update its knowledge and adjust decisions based on live data rather than relying solely on static pre-trained models.

Recursive Learning – A learning approach where AI iteratively updates its understanding based on repeated exposure to data, refining its internal representations over time.

Renormalizing Generative Models (RGMs) – A new class of AI models that apply renormalization techniques to efficiently process hierarchical data, reducingcomputational costs and improving adaptability through a single unified framework.

Reasoning AI – AI that not only recognizes patterns but also understands the conceptual relationships between them, enabling deeper insights and decision-making.

S

SAFE AI – A framework ensuring AI systems are Secure, Accountable, Fair, and Explainable, addressing common issues in traditional AI models.

Scale-Free Modeling – A key advantage of RGMs where AI can process data across multiple scales without losing accuracy, from microscopic details to large-scale planning.

Self-Organizing AI – AI that autonomously restructures its internal representations to optimize learning and decision-making.

Spatial Web – The evolution of the internet that integrates AI, blockchain, and immersive technologies, allowing Intelligent Agents to interact in digital and physical environments.

State-Space Representation – A mathematical framework that represents all possible states or configurations of a system, allowing RGMs to model complex environments dynamically.

T

Task Generalization – AI’s ability to adapt its learning to new, unseen tasks without extensive retraining.

Trustworthy AI – AI systems that prioritize reliability, security, and ethical alignment to build user and institutional trust.

 

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What's your experience? We'd love to know!
Joanne Phillips
Posted 2 days ago
Wonderful Learning Opportunity

The structure of the course moved progressively from the basics to the more intricate concepts in a spiraling fashion that helped to tie the topics into a cohesive understanding. The Learning Lab opportunity is priceless. Denise makes these innovative tools and ideas accessible here for us to learn so that we can use them to transform the world. I look forward to the adventure ahead!

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