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README.md
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pipeline_tag: text-generation
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# SymLM
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SymbioticLM is a hybrid symbolic–neural language model
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These components support symbolic modulation, structural consistency, and dynamic feedback across layers.
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This
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Ideal for evaluating neuro-symbolic mechanisms, memory replay, and dynamic gate adaptation in language modeling.
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Due to its modularity and memory components, the model can perform meaningfully even with relatively small fine-tuning datasets.
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This checkpoint is trained on 25,000 examples from MetaMathQA — effective for structure, but not broad generalization.
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The model has no reinforcement learning from human feedback (RLHF) or safety tuning. Outputs may reflect hallucinations or errors.
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Language fluency should not be mistaken for rigorous proof — outputs should be verified before downstream use.
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Although capable, its symbolic structure is tuned toward reasoning and logic, not open-domain chat.
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- learning_rate: 3e-05
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- train_batch_size: 16
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- eval_batch_size: 16
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- seed: 42
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- gradient_accumulation_steps: 64
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- total_train_batch_size: 1024
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- optimizer: Use adamw_torch with betas=(0.9,0.999) and epsilon=1e-08 and optimizer_args=No additional optimizer arguments
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- lr_scheduler_type: cosine
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- lr_scheduler_warmup_steps: 500
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- num_epochs: 3
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- mixed_precision_training: Native AMP
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- Pytorch 2.7.0+cu126
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- Datasets 3.5.0
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- Tokenizers 0.21.1
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### Research Foundations
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SymbioticLM is grounded in a suite of original research papers and formal theoretical advancements that push the boundaries of adaptive language modeling, symbolic reasoning, and neuro-symbolic integration:
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Introduces a multi-agent coordination framework where symbolic and neural agents dynamically adjust to input signals through gated interaction and adaptive feedback.
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Focus: responsiveness, memory modulation, gate-driven specialization.
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Combines the helical-memory backbone with a multi-agent symbolic system to construct a language model capable of contextual growth, reflective reasoning, and dynamic attention allocation.
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Result: a system that learns faster, adapts deeper, and reflects symbolically.
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The Analytic Foundations Theorem (AFT)
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A rigorous, measure-theoretic generalization of the Fundamental Theorem of Calculus. AFT replaces classical pointwise differentiation with discrepancy-driven integration over vanishing measure sets, enabling symbolic gradient logic applicable to AI reasoning.
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Applies to: gradient-free optimization, symbolic dynamics, and function space convergence.
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Multi-agent dynamic response coordination
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Formal memory representation through integral discrepancy logic
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pipeline_tag: text-generation
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---
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# 🧠 SymLM
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**SymbioticLM** is a hybrid symbolic–neural language model that integrates a frozen transformer backbone (`Qwen2ForCausalLM`) with a suite of symbolic cognitive modules for adaptive, interpretable reasoning.
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---
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## 📐 Model Description
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The architecture fuses neural token-level generation with symbolic introspection and reasoning:
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- **Dynamic Thought Evolution with Helical Encoding and DNA-Inspired Memory (DTE-HDM)**
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Enables structured long-term memory and spiral-context encoding across tokens.
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- **Multi-Agent Symbiotic Response Mechanisms (M.A.S.R.M)**
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Coordinates symbolic-neural agents via gated attention and adaptive response layers.
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- **QwenExoCortex**
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Projects contextual hidden states from the Qwen model into a symbolic fusion space for reasoning and memory replay.
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- **Symbolic processors**
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Includes:
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- `ThoughtDynamicsLNN`
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- `Liquid / Crystalline Processors`
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- `Graph Reasoning with DNAConv`
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- A rolling `ThoughtMemory`
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This enables real-time fusion of symbolic thinking, token generation, and reasoning-aware language modeling.
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---
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## 🎯 Intended Uses & Limitations
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### ✅ Intended Uses
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- **Mathematical reasoning and proof generation**
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Fine-tuned on *MetaMathQA*, optimized for symbolic Q&A, equation logic, and structured inference.
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- **Symbolic-cognitive AI research**
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Useful for studying attention modulation, memory replay, and neural-symbolic interface dynamics.
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- **Low-resource adaptation**
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Modular memory and projection design enables meaningful performance even with smaller datasets.
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- **Building adaptive cognition systems**
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Can serve as a symbolic kernel for reflective AI agents and knowledge evolution pipelines.
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---
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### ⚠️ Limitations
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- **Limited training scale**
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Trained on 25,000 MetaMathQA examples. Effective for symbolic form, but not yet broad generalization.
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- **No RLHF or alignment**
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Outputs are not tuned for safety or instruction alignment and may hallucinate.
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- **Fluency ≠ correctness**
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Symbolic fluency does not imply mathematically valid proofs. Verification is recommended.
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- **Not optimized for open-domain generation**
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This model prioritizes logic and structure over conversational depth.
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---
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## ⚙️ Training Procedure
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This checkpoint is currently in experimental phase.
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### 🧪 Training Hyperparameters
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- **learning_rate**: `3e-5`
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- **train_batch_size**: `16`
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- **eval_batch_size**: `16`
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- **gradient_accumulation_steps**: `64`
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- **total_train_batch_size**: `1024`
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- **optimizer**: `AdamW`, betas=(0.9, 0.999), epsilon=1e-08
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- **lr_scheduler_type**: `cosine`
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- **warmup_steps**: `500`
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- **num_epochs**: `3`
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- **mixed_precision_training**: `Native AMP`
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---
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## 🧱 Framework Versions
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- 🤗 Transformers: `4.51.3`
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- 🧠 PyTorch: `2.7.0+cu126`
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- 📚 Datasets: `3.5.0`
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- 🔤 Tokenizers: `0.21.1`
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---
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## 📚 Research Foundations
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SymbioticLM builds upon a cohesive theoretical framework for dynamic reasoning and neuro-symbolic learning:
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### 🔁 Multi-Agent Symbiosis and Dynamic Thought
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**Rapid Adaptation via Multi-Agent Symbiotic Response Mechanisms (M.A.S.R.M)**
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> A framework where symbolic and neural agents dynamically adapt via gated feedback, memory modulation, and agent-based specialization.
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**Focus**: Multi-agent control, reflective learning, contextual responsiveness
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---
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### 🧬 Dynamic Thought Evolution with Helical Encoding and DNA-Inspired Memory (DTE-HDM)
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> A memory structure inspired by biological helices, enabling thought persistence through spiral-layered contextual encodings across time.
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**Focus**: Long-term token evolution, normalized replay, thought continuity
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### 🧠 Integrating DTE-HDM + M.A.S.R.M for Adaptive AI
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> Combines symbolic evolution and multi-agent adaptation to construct an LLM that reflects, adapts, and deepens reasoning through internal dynamics.
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**Result**: A system that *learns faster*, *adapts deeper*, and *thinks symbolically*
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---
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### 📐 Theoretical Underpinning
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**The Analytic Foundations Theorem (AFT)**
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> A rigorous, measure-theoretic replacement for classical calculus: replaces pointwise derivatives with discrepancy-driven integral convergence across vanishing sets.
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**Applies to**:
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- Symbolic gradients
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- Gradient-free optimization
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- Discrete logic approximation in function spaces
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These form the **mathematical and architectural core** of SymbioticLM, enabling:
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- 🧠 *Neuro-symbolic cognitive evolution*
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- 🔁 *Multi-agent dynamic feedback coordination*
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- 📏 *Formal memory through discrepancy-based logic*
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