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# ModularBrainAgent π§
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**Author:** Aliyu Lawan Halliru (`@Almusawee`)
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**Affiliation:** Independent AI Researcher (Nigeria)
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**License:** MIT
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**
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**Diagram:** 
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## π§
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- Attention-based Relay Layer
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- Adaptive Interneuron Logic
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- Neuroendocrine Gain Modulation
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- Recurrent Autonomic Processor (GRU-based)
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- Mirror Comparator for goal-state reflection
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- Multi-modal encoders (GRU, CNN, shared)
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- Task-specific heads (regression, classification, vision)
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- Replay Buffer for continual learning
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## 𧬠Biological Motivation
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The architecture mirrors functional regions of the human brain, including:
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- Cortex-like layered processing
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- Attention routing
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- Local learning with surrogate gradients
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- Adaptive spiking thresholds
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- Memory replay (like hippocampal consolidation)
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---
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## π
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## π Citation (arXiv/Preprint Ready)
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```
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@misc{halliru2025modularbrainagent,
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title={ModularBrainAgent: A Brain-Inspired Modular Neural Architecture for Cognitive Multi-Task Learning},
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author={Aliyu Lawan Halliru},
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year={2025},
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url={https://huggingface.co/Almusawee/ModularBrainAgent}
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}
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```
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---
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## π Files Included
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- `ModularBrainAgent_Paper_With_Diagram.pdf` β Full paper with abstract, architecture, references
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- `visual_diagram_full_architecture.png` β Schematic of forward-pass and modular connections
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---
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## π€ License
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# ModularBrainAgent π§
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**Author:** Aliyu Lawan Halliru (`@Almusawee`)
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**Affiliation:** Independent AI Researcher (Nigeria)
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**License:** MIT
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**Paper:** [Download PDF](./ModularBrainAgent_Paper.pdf)
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**Diagram:** (Coming soon)
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---
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## π§ Abstract
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We propose ModularBrainAgent, a biologically motivated neural architecture for multi-task learning that mirrors the functional organization of the human brain. Unlike monolithic deep networks, our model is designed with architectural intelligence: distinct modular subsystems that reflect perceptual, attentional, memory, and decision-making pathways in biological cognition.
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Each component β including spiking sensory processors, adaptive interneurons, relay routing layers, neuroendocrine gain modulators, recurrent autonomic loops, and mirror-state comparators β serves a unique cognitive function. These modules are not just trainable; they are structurally positioned to enable learning itself. This built-in cognitive topology improves sample efficiency, interpretability, and continual adaptability.
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The model supports multimodal input via GRUs, CNNs, and shared encoders, and leverages a task-specific replay buffer for lifelong learning. Experimental design favors generalization across domains and tasks with minimal interference. We argue that structural cognition β not just data or gradient optimization β is the key to general-purpose artificial intelligence. ModularBrainAgent provides a functional and extensible blueprint for biologically plausible, task-flexible, and memory-capable AI systems.
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---
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## π Architecture Overview
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- Spiking sensory neurons for input encoding
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- Attention-based relay for signal routing
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- Adaptive interneuron logic for abstraction
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- Neuroendocrine modulation (gain control)
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- GRU-based recurrent loop (autonomic memory)
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- Mirror comparator for goal-state reflection
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- Replay buffer with task tagging
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- Multimodal encoders and task heads
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---
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## π€ License
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MIT License (free to use, adapt, and build upon with attribution)
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## π Citation
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