| --- |
| language: |
| - en |
| license: mit |
| library_name: lux |
| tags: |
| - julia |
| - lux |
| - slm |
| - philosophy |
| - symbiogenesis |
| - monarch-mixer |
| - long-convolution |
| - causal-conv |
| - rmsnorm |
| - swiglu |
| - bpe |
| - text-generation |
| - attention-free |
| pipeline_tag: text-generation |
| datasets: |
| - LisaMegaWatts/philosophy-corpus |
| model-index: |
| - name: SymbioSLM |
| results: |
| - task: |
| type: text-generation |
| name: Text Generation |
| dataset: |
| type: LisaMegaWatts/philosophy-corpus |
| name: philosophy-corpus |
| metrics: |
| - type: perplexity |
| value: 37.3 |
| name: Val PPL |
| verified: false |
| - type: loss |
| value: 3.62 |
| name: Val Loss |
| verified: false |
| --- |
| |
| # SymbioSLM |
|
|
| A **5.05M parameter** attention-free language model using the **Symbiogenesis** architecture — multi-organelle sequence mixing with learned per-channel gating. Trained on a philosophy corpus of 981 classical texts (~795M tokens). |
|
|
| ## Architecture |
|
|
| Symbiogenesis replaces self-attention with three complementary "organelles" for sequence mixing, inspired by the biological theory of symbiogenesis (Margulis, 1967) — where complex organelles like mitochondria were once independent organisms that fused into eukaryotic cells. |
|
|
| Each of the 8 SymbioBlocks contains: |
|
|
| | Organelle | Function | Scale | Complexity | |
| |-----------|----------|-------|------------| |
| | **CausalDepthwiseConv1d** | Local n-gram pattern detection | Local (kernel=4) | O(n) | |
| | **Monarch Matrix** | Sub-quadratic global sequence mixing | Global | O(n√n) | |
| | **LongConv** | Dense causal convolution filtering | Global | O(n log n) | |
|
|
| An **OrganelleGate** (per-channel softmax) learns which organelle each embedding channel relies on, creating specialized "fused organisms" per block. |
|
|
| ### No Positional Encoding |
|
|
| SymbioSLM requires **no explicit positional encoding** (no RoPE, no sinusoidal embeddings). The Monarch matrices and LongConv kernels implicitly learn position-dependent mixing patterns, while CausalConv captures local ordering through its convolutional structure. |
|
|
| ### Model Specifications |
|
|
| | Parameter | Value | |
| |-----------|-------| |
| | Architecture | Symbiogenesis | |
| | Parameters | 5,052,672 (5.05M) | |
| | Embedding dim | 256 | |
| | Layers | 8 | |
| | Monarch heads | 1 per block | |
| | Conv kernel | 4 | |
| | FFN | SwiGLU (4x, 2/3 adjusted) | |
| | Normalization | RMSNorm (pre-norm) | |
| | Context length | 256 tokens | |
| | Vocab size | 2,000 (BPE) | |
| | Weight tying | Yes | |
| | Free energy reg | 0.001 | |
|
|
| ### Parameter Breakdown |
|
|
| | Component | Params | % | |
| |-----------|--------|---| |
| | Token embedding | 512,000 | 10.1% | |
| | SymbioBlocks (8x) | 4,540,672 | 89.9% | |
| | CausalConv | ~8K/block | | |
| | Monarch | ~131K/block | | |
| | LongConv | ~65K/block | | |
| | OrganelleGate | ~769/block | | |
| | SwiGLU FFN | ~350K/block | | |
| | RMSNorm (2x) | ~512/block | | |
| | Final RMSNorm | 256 | <0.1% | |
|
|
| ## Results |
|
|
| Trained for 12,305 steps on an NVIDIA RTX 3060 (12GB). |
|
|
| | Metric | Value | |
| |--------|-------| |
| | **Val Loss** | **3.62** | |
| | **Val PPL** | **37.3** | |
| | Training steps | 12,305 | |
| | Batch size | 32 | |
| | Precision | Float16 (AMP) | |
|
|
| ### Comparison with Other 5M Julia SLMs |
|
|
| All models trained on the same philosophy corpus with identical tokenizer and training budget (12,305 steps): |
|
|
| | Model | Architecture | Params | Val Loss | Val PPL | |
| |-------|-------------|--------|----------|---------| |
| | [JuliaSLM](https://huggingface.co/LisaMegaWatts/JuliaSLM) | Transformer (RoPE) | 5.04M | **3.54** | **34.5** | |
| | **SymbioSLM** | **Symbiogenesis** | **5.05M** | **3.62** | **37.3** | |
| | [MonarchSLM](https://huggingface.co/LisaMegaWatts/MonarchSLM) | Monarch Mixer | 5.04M | 3.65 | 38.4 | |
|
|
| SymbioSLM outperforms the Monarch-only baseline while using no attention mechanism. The multi-organelle fusion provides complementary mixing at different scales that a single mixer cannot achieve alone. |
|
|
| ## Training Configuration |
|
|
| ```toml |
| [model] |
| arch = "symbiogenesis" |
| embed_dim = 256 |
| n_layers = 8 |
| n_monarch_heads = 1 |
| conv_kernel_size = 4 |
| ffn_mult = 4 |
| context_length = 256 |
| weight_tying = true |
| free_energy_beta = 0.001 |
| |
| [training] |
| optimizer = "adamw" |
| lr = 6e-4 |
| min_lr = 6e-5 |
| warmup_steps = 500 |
| max_steps = 12305 |
| batch_size = 32 |
| grad_clip = 1.0 |
| precision = "f16" |
| ``` |
|
|
| ## Gelation Monitoring |
|
|
| Training includes gelation monitoring via CUSUM change-point detection on gate entropy. This tracks when the organelle gates transition from uniform mixing to specialized configurations — a phase transition analogous to gel formation in polymer physics. |
|
|
| ## Usage |
|
|
| ### Julia (Lux.jl) |
|
|
| ```julia |
| using JuliaGPT |
| |
| # Load model |
| config = load_config("config.toml") |
| model = create_model(config.model) |
| ps, st, _, _, _ = load_checkpoint("final.jld2") |
| |
| # Load tokenizer |
| tokenizer = BPETokenizer("vocab.json", "merges.txt") |
| |
| # Generate text |
| prompt = "The nature of reality" |
| output = generate(model, ps, st, tokenizer, prompt; |
| max_new_tokens=200, temperature=0.8, top_k=40) |
| println(output) |
| ``` |
|
|
| ## References |
|
|
| - **Symbiogenesis framework**: [DavinciDreams/symbiogenesis](https://github.com/DavinciDreams/symbiogenesis) — Evolutionary NAS via organism fusion |
| - **Monarch Mixer**: Dao et al., 2023 — Sub-quadratic GEMM-based sequence mixing |
| - **Hyena**: Poli et al., 2023 — Long convolutions for sequence modeling |
| - **Endosymbiotic theory**: Margulis, 1967 — Origin of eukaryotic organelles |
|
|
| ## Citation |
|
|
| ```bibtex |
| @misc{symbio-slm-2026, |
| title={SymbioSLM: Multi-Organelle Sequence Mixing for Attention-Free Language Modeling}, |
| author={LisaMegaWatts}, |
| year={2026}, |
| url={https://huggingface.co/LisaMegaWatts/SymbioSLM} |
| } |
| ``` |
|
|
| ## License |
|
|
| MIT |
|
|