reaperdoesntknow/Symbiotic-1B

Hugging Face
TEXT GENERATIONConcurrent Unit Cost:1Model Size:0.8BQuant:BF16Context Size:32kTool Calling:SupportedPublished:May 6, 2025License:afl-3.0Architecture:Transformer0.0K Featherless Exclusive Warm

reaperdoesntknow/Symbiotic-1B is a 1 billion parameter hybrid symbolic-transformer model built on Qwen-1B, developed by Convergent Intelligence LLC: Research Division. It integrates a rotary transformer with a symbolic processing pipeline and persistent episodic memory for enhanced reasoning. This model is optimized for lightweight, memory-augmented symbolic inference on CPU and embedded systems. It excels at tasks requiring logical processing, procedural planning, and graph-based explanation generation in resource-constrained environments.

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SymbioticLM-1B: Hybrid Symbolic-Transformer for Constrained Environments

SymbioticLM-1B, developed by Convergent Intelligence LLC: Research Division, is a 1 billion parameter model that uniquely combines a Qwen-1B rotary transformer backbone with a sophisticated symbolic processing pipeline and persistent episodic memory. This architecture allows it to perform advanced reasoning tasks even in resource-limited settings, such as CPU and embedded inference.

Key Capabilities & Architecture Highlights

  • Hybrid Design: Fuses a Qwen-1B transformer with a symbolic cognitive engine, including symbolic memory and dynamic thought evolution.
  • Memory-Augmented Reasoning: Features 2048 symbolic vectors with entropic and contextual retrieval, enabling persistent learning and recall.
  • Symbolic Processing: Incorporates advanced symbolic modules like ThoughtDynamicsLNN, CrystallineProcessor (DNAConv GNN), LiquidThoughtProcessor, and HelicalDNAProcessor.
  • "Dream Mode": Supports symbolic simulation with a ThoughtGenerator for complex problem-solving.
  • Discrepancy Calculus Foundation: Developed under the DISC framework, which treats training singularities as structural signals for understanding learning geometry.

Ideal Use Cases

  • CPU-optimized symbolic inference: Designed for efficient operation on standard CPUs.
  • Educational agents with memory: Suitable for applications requiring persistent knowledge and logical processing.
  • Graph-based explanation generation: Excels at creating structured, logical explanations.
  • Procedural planning, math modeling, and small-code generation: Effective for tasks demanding precise, step-by-step reasoning.

Limitations

  • Less fluent in free-form language compared to larger, purely neural models.
  • Symbolic accuracy improves with careful memory curation.
  • Complex queries in "Dream Mode" may require warm-up or symbolic seeding.