warped-hierarchical-modular-neural-network

name

warped-hierarchical-modular-neural-network

description

Relaxing Warped Spaces — generalized hierarchical and modular dynamical neural networks. Uses warped hierarchical modular structure for efficient representation learning and dynamical neural processing. Applicable to neuromorphic computing, hierarchical representation learning, dynamical neural networks. 触发词: warped spaces, hierarchical modular, dynamical neural network, representation learning, neural dynamics

Warped Hierarchical Modular Neural Network

Description

Dynamical neural network model with warped hierarchical and modular structure for efficient representation learning. Based on research on "Relaxing in Warped Spaces: Generalized Hierarchical and Modular Dynamical Neural Network."

Key Concepts

Warped Spaces

• Non-Euclidean representation spaces that capture hierarchical relationships
• Enables more efficient encoding of structured data
• Warping transforms adapt to data topology

Hierarchical Modularity

• Multi-scale organization from local to global processing
• Modular structure enables specialized computation
• Cross-module communication through bottleneck representations

Dynamical Neural Processing

• State-space formulation of neural computation
• Temporal dynamics as core computational mechanism
• Stability analysis through dynamical systems theory

Activation Keywords

• warped spaces
• hierarchical modular neural network
• dynamical neural network
• representation learning
• neural dynamics
• non-Euclidean representations
• multi-scale neural processing

Workflow

Step 1: Define Warped Space Structure

import numpy as np

# Warped metric for hierarchical space
def warped_distance(x1, x2, warp_params):
    """Compute distance in warped space."""
    diff = x1 - x2
    # Apply warp transformation
    warped = warp_params @ diff
    return np.linalg.norm(warped)

Step 2: Build Hierarchical Modular Architecture

def create_hierarchical_modules(n_modules, neurons_per_module):
    """Create multi-scale modular architecture."""
    modules = []
    for i in range(n_modules):
        # Local processing within module
        module = {
            'neurons': neurons_per_module[i],
            'connections': np.random.randn(neurons_per_module[i], neurons_per_module[i]) * 0.1,
            'scale': 2**i  # Exponential scale hierarchy
        }
        modules.append(module)
    return modules

Step 3: Implement Dynamics

def neural_dynamics(state, modules, dt=0.01):
    """Forward dynamics with hierarchical processing."""
    new_state = state.copy()
    for module in modules:
        # Local dynamics within module
        local_update = module['connections'] @ state
        new_state += dt * local_update
    return new_state

Applications

1. Hierarchical representation learning — capturing multi-scale structure
2. Neuromorphic computing — efficient temporal processing
3. Dynamical neural networks — state-space neural computation
4. Multi-scale feature extraction — from local to global features

References

• arXiv:2604.10606 — Relaxing in Warped Spaces: Generalized Hierarchical and Modular Dynamical Neural Network