Mindspace — Research

Exploring the intersection of Artificial General Intelligence, Spiking Neural Networks, and cognitive architectures.

Currently researching adaptive world models...

Research Domains

Experiments & Case Studies

Spiking Neural Network Pattern Recognition

Published

Spiking Neural Networks

Developed a bio-inspired SNN architecture for real-time pattern recognition with 90% accuracy and 10x energy efficiency compared to traditional ANNs. Uses temporal spike encoding for feature extraction.

SNNPattern RecognitionNeuromorphic

Key Finding:

Temporal coding significantly improves energy efficiency while maintaining accuracy

World Model for Embodied Agent Navigation

In Progress

World Models & Embodied Learning

Implemented predictive world models enabling sample-efficient navigation in complex environments. Agent learns environment dynamics through embodied interaction and generalizes to unseen scenarios.

World ModelsEmbodied AINavigation

Key Finding:

Embodied learning reduces sample complexity by 5x compared to model-free approaches

Meta-Learning for Few-Shot Reasoning Tasks

Under Review

Reasoning & Meta-Learning

Developed a meta-learning framework that enables rapid adaptation to new reasoning tasks with minimal examples. Combines gradient-based meta-learning with compositional representations.

Meta-LearningFew-ShotReasoning

Key Finding:

Compositional meta-learning achieves human-level performance on novel reasoning tasks

Consciousness Measurement Framework

Theoretical

Consciousness & AI Ethics

Developed computational metrics for measuring consciousness-like properties in AI systems based on Integrated Information Theory and Global Workspace Theory.

ConsciousnessIITMeasurement

Key Finding:

Integrated information correlates with emergent self-awareness behaviors

Compression with Self-Organizing Maps

Published

World Models & Embodied Learning

Novel approach using SOMs to reduce high-dimensional sensory input while preserving semantic structure. Enables efficient online learning in resource-constrained environments.

CompressionSOMUnsupervised

Key Finding:

SOM-based compression maintains 95% semantic fidelity at 50x compression ratio

Ethical Reasoning in Autonomous Systems

In Progress

Consciousness & AI Ethics

Framework for embedding ethical reasoning capabilities into autonomous systems using deontic logic and value alignment techniques.

EthicsAutonomous SystemsValue Alignment

Key Finding:

Deontic logic enables consistent ethical decision-making under uncertainty

Visualizations & Findings

Key Research Findings

Spiking Neural Networks

Temporal spike encoding achieves 10x energy efficiency while maintaining 90% accuracy on pattern recognition tasks.

90% accuracy10x efficiency
Paper

World Models

Embodied learning reduces sample complexity by 5x compared to model-free approaches in navigation tasks.

5x sample efficiency85% success rate
Demo

Meta-Learning

Compositional meta-learning achieves 92% accuracy on novel reasoning tasks.

92% accuracyUnder Review
Paper

Consciousness Metrics

Integrated Information Theory correlates with emergent self-awareness behaviors.

Φ = 0.73Theoretical
Theory

Code Repositories & Papers

SNN-Pattern-Recognition

Temporal spike encoding implementation

Embodied-World-Models

Predictive navigation framework

Meta-Learning-Framework

Few-shot reasoning implementation

Consciousness-Metrics

IIT-based measurement tools

SOM-Compression

Self-organizing maps for dimensionality reduction

Ethical-AI-Framework

Deontic logic for autonomous systems

Research Impact Visualization

2024Published

SNN Pattern Recognition

90% accuracy, 10x energy efficiency breakthrough

45 citations3 implementations
2024Under Review

Meta-Learning Framework

92% few-shot accuracy on novel reasoning tasks

Pre-print availableCode released
2024In Progress

World Model Navigation

5x sample efficiency improvement in embodied learning

Demo availableExperiments ongoing

Ideas in Progress

Multi-modal memory integration in SNN-based agents

Experimenting with storing episodic traces in spiking architectures.

Compression of sensory input with self-organizing maps

Investigating low-dim encodings for faster online learning.

Research Timeline

2021 — Started AGI framework design
2023 — Published experiments on accessibility
2024 — Scaling SNN prototypes

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