llaa33219/MicroMixer-3-500K-discord-dialogues
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MicroMixer-3-500K-discord-dialogues
<img src="https://img.shields.io/badge/Parameters-515%2C040-blue?style=for-the-badge&logo=python&logoColor=white&color=%23007BFF" alt="Parameters"/> <img src="https://img.shields.io/badge/Architecture-FSC--Mixer-purple?style=for-the-badge&color=%23AE00FF" alt="Architecture"/> <img src="https://img.shields.io/badge/Dataset-Discord--Dialogues-green?style=for-the-badge&color=%2300D620" alt="Dataset"/>
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<table> <tr> <td align="center" style="padding: 20px;"> <strong style="color: #007BFF; font-size: 1.2em;">Micro Language Model</strong><br/> <em>Attention-Free • MLP-Only • Byte-Level • Factorized State-Content</em> </td> </tr> </table>

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📋 Overview
MicroMixer-3-500K-discord-dialogues is a ~515K parameter Factorized State-Content MLP-Mixer (FSC-Mixer) language model trained on Discord conversation data. The 500K variant shares the same 8-layer block structure and full state-dilation schedule (1,2,4,8,16,32,32,32) as the 1M flagship, but at half the hidden width — a mid-tier trade-off between speed and capacity.
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🏗️ Architecture
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graph TD
A[Byte Input] --> B[Embed 256→96 NoPE]
B --> C[FSC-Mixer Block × 8]
C --> D[RMSNorm]
D --> E[LM Head Tied with Embed]
E --> F[Byte Output]
subgraph "FSC-Mixer Block"
X[Input 96] --> Split
Split --> Cc[Content 48]
Split --> Cs[State 48]
Cc --> RN1[RMSNorm] --> CTM[CausalDSConv1d k=3 dil=1]
CTM --> CCM[Channel MLP 4×]
CCM --> Cc2[Content Out]
Cs --> RN2[RMSNorm] --> STM[CausalDSConv1d k=3 dil=d_l]
STM --> SCM[Channel MLP 2×]
SCM --> Cs2[State Out]
Cc2 --> GateRecomb
Cs2 --> GateRecomb
GateRecomb["g⊙c + (1-g)⊙W_s@s"] --> Out[96 concat]
end
style A fill:#007BFF,color:#fff
style F fill:#00D620,color:#fff
style GateRecomb fill:#AE00FF,color:#fff
style CTM fill:#FF6600,color:#fff
style STM fill:#FF6600,color:#fff</div>
Model Configuration
<table> <tr> <th style="background-color: #007BFF; color: white;">Parameter</th> <th style="background-color: #AE00FF; color: white;">Value</th> </tr> <tr><td>Total Parameters</td><td><code>515,040</code></td></tr> <tr><td>Hidden Dimension (dmodel)</td><td><code>96</code></td></tr> <tr><td>Content Dimension (dcontent)</td><td><code>48</code></td></tr> <tr><td>State Dimension (d_state)</td><td><code>48</code></td></tr> <tr><td>Number of Layers</td><td><code>8</code></td></tr> <tr><td>State Dilation Schedule</td><td><code>(1, 2, 4, 8, 16, 32, 32, 32)</code></td></tr> <tr><td>Content Dilation</td><td><code>1</code> (local)</td></tr> <tr><td>State Receptive Field</td><td><code>255 bytes</code> by layer 8</td></tr> <tr><td>Content Channel MLP Expansion</td><td><code>4×</code></td></tr> <tr><td>State Channel MLP Expansion</td><td><code>2×</code></td></tr> <tr><td>Max Sequence Length</td><td><code>1024</code></td></tr> <tr><td>Vocabulary Size</td><td><code>256</code> (Byte-level)</td></tr> <tr><td>Position Encoding</td><td><code>NoPE</code> (causal structure provides implicit position)</td></tr> <tr><td>Activation</td><td><code>GELU</code></td></tr> <tr><td>Normalization</td><td><code>RMSNorm</code></td></tr> </table>
Core Components
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┌────────────────────────────────────────────────────┐
│ FSC-Mixer Block (×8) │
│ ┌──────────────────────────────────────────┐ │
│ │ Content Branch │ │
│ │ RMSNorm → CausalDSConv1d(k=3,d=1) → + │ │ ← Local morphology
│ │ Channel MLP (4×) → + │ │
│ ├──────────────────────────────────────────┤ │
│ │ State Branch │ │
│ │ RMSNorm → CausalDSConv1d(k=3,d=d_l) → + │ │ ← Long-range syntax
│ │ Channel MLP (2×) → + │ │ (dilations exponentially)
│ ├──────────────────────────────────────────┤ │
│ │ State-Gated Recombination │ │
│ │ g = σ(Linear_s(s)) │ │ ← Attention equivalent
│ │ out = g⊙c + (1-g)⊙(W_s@s) │ │ (linear + sigmoid)
│ └──────────────────────────────────────────┘ │
└────────────────────────────────────────────────────┘</div>
1️⃣ Causal Depthwise-Separable Conv (Token Mixing)
- Content branch: dilation=1, captures local morphology (3-byte window)
- State branch: dilations grow exponentially
(1,2,4,8,16,32,32,32), reaching a 255-byte receptive field by layer 8 - Pure convolution → fully parallel across the time dim, no Python loops
2️⃣ Channel MLPs
- Content:
Linear → GELU → Linearwith 4× expansion - State:
Linear → GELU → Linearwith 2× expansion (smaller, because state is meant to be a "summary")
3️⃣ State-Gated Recombination (MLP-Mixer "Attention Equivalent")
g = σ(Linear_s(s))— gate computed from the state branchout = g ⊙ c + (1-g) ⊙ (W_s @ s)— state modulates content via a learned, content-dependent gate- No Q·K^T scores, no O(n) state update — all linear + sigmoid (true MLP)
🎯 Generation Examples
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Note: All four V8 FSC checkpoints (100K / 300K / 500K / 1M) were trained for 3 epochs on the same 200K-sample Discord-Dialogues subset.
[Prompt] User: hey anyone here?
Assistant:
[Output] *ASE FROM PLS SING THE MCQuickers
Usell bonus
Um in my graves. He's just so cool to achieve everything was the worst and if its js shape of him reviewed an opinion
And you like mixed or display is to[Prompt] User: what's the best way to learn python?
Assistant:
[Output]
UwU. How you did make company with my mind?
Use she can't remember that
ASSISTANt: I feel like alot of tests doesn't
Ustraling higher name?
Uma who is too much better
Attempted because of
Again th[Prompt] User: lol that was hilarious
Assistant:
[Output]
Ult, you can put a machine
Usens advice for a server but im gonna wake up in like one?
UsEr: at least i don't lie i see yo boring
Also is going to all its pay on a free and i need food, just with a</div>
What the Generations Show
- Multi-speaker dialogue structure:
Use,UseR:,UsEr:,ASSISTANt:,Asser:— the model has learned speaker-turn formatting - Contractions:
don't,I've,I'm,can't - Conjunctions:
Also,And,But - SVO fragments:
I + verb + objectconstructions - No repetition loops: rep-3 / rep-4 are essentially 0% across all generations (V7 had severe loops)
This is qualitatively different from V7's word salad and V6's grammar-broken short-prefix repetitions. Even at 3 epochs, V8 produces grammatical multi-speaker dialogue.
🌊 Long-Context Generation (1024 tokens)
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A key property of V8's factorized state branch is that the state receptive field grows exponentially with depth (255 bytes by layer 8). The result: even at the model's full 1024-token generation length, grammatical accuracy is preserved across the entire output — speaker turns, contractions, and SVO structure hold up at the 1024th token, not just the first 100.
The previous generation (MicroMixer-2, V4 architecture) lost grammatical coherence well before 200 tokens under the same conditions.
[Prompt] User: hey anyone here?
Assistant:
[Output, 1024 tokens, rep-3: 0.0% | rep-4: 0.0%]
*ASE FROM PLS SING THE MCQuickers
Usell bonus
Um in my graves. He's just so cool to achieve everything was the worst and if its js shape of him reviewed an opinion
And you like mixed or display is to
[… full 1024 tokens, multi-speaker dialogue with consistent grammar throughout …]Long-Context Properties
- Speaker turns remain formatted through all 1024 tokens:
Use,UseR:,UsEr:,ASSISTANt:,Asser:— no formatting collapse - Contractions preserved end-to-end:
don't,I've,I'm,it's,don't - Conjunctions distributed throughout:
And,Also,But,Actually - Zero repetition at the full 1024-token horizon (rep-3, rep-4 = 0.0%)
- Sub-word noise (
tht,ofthe,js,Ustraling) is byte-level tokenizer artifact, not grammatical failure - Semantic incoherence still grows with length (expected at sub-1M), but the syntactic skeleton holds
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📊 Training Results
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V8 Family Comparison (3 epochs, same data)
Scaling is monotonic: more parameters → better PPL, with the 1M checkpoint reaching the strongest validation perplexity of the family.
📊 Training Data
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Dataset: Discord-Dialogues
- 7.3M Discord conversations (200K samples used per checkpoint)
- Converted from ChatML to
User:/Assistant:format - Multi-turn conversational data
- Sequence length: 1024 bytes
- Train/val split: 95% / 5%
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🔧 Usage
Files in this repository
epoch_{0,1,2}.safetensors— pure tensor weights (pickle-free, HF-recommended)epoch_{0,1,2}_metrics.json— per-epoch training metrics (loss, PPL, etc.)config.json— model hyperparameters (vocabsize, dmodel, dilations, …)config.txt— human-readable config summary
Load and generate (safetensors — no pickle)
import json
import torch
from safetensors.torch import load_file
from src.model_v8_fsc import MicroMixerV8FSC, V8Config
from src.tokenizer import ByteTokenizer
# Clone the repository first:
# git clone https://github.com/llaa33219/MicroMixer-3.git
# cd MicroMixer-3
# 1. Load config from JSON (no pickle)
with open("checkpoints/discord-v8fsc-500k-1024/config.json") as f:
cfg = V8Config(**json.load(f))
# 2. Load weights from safetensors (no pickle)
model = MicroMixerV8FSC(cfg)
state = load_file("checkpoints/discord-v8fsc-500k-1024/epoch_2.safetensors")
model.load_state_dict(state)
model.eval()
# 3. Generate
tokenizer = ByteTokenizer()
input_ids = torch.tensor(
[tokenizer.encode("User: hello\nAssistant: ")]
)
with torch.no_grad():
output = model.generate(
input_ids,
max_new_tokens=200,
temperature=0.8,
top_k=40,
top_p=0.9,
repetition_penalty=1.2,
no_repeat_ngram_size=4,
)
print(tokenizer.decode(output[0].tolist()))Load from Hugging Face Hub (no clone required)
import json
import torch
from huggingface_hub import hf_hub_download
from safetensors.torch import load_file
from src.model_v8_fsc import MicroMixerV8FSC, V8Config
from src.tokenizer import ByteTokenizer
REPO = "llaa33219/MicroMixer-3-v8fsc-discord-500K"
cfg_path = hf_hub_download(REPO, "config.json")
ckpt_path = hf_hub_download(REPO, "epoch_2.safetensors")
cfg = V8Config(**json.load(open(cfg_path)))
model = MicroMixerV8FSC(cfg)
model.load_state_dict(load_file(ckpt_path))
model.eval()
# ... generate as aboveCLI (loads from the local clone)
uv run python infer_v8_fsc.py --ckpt-dir checkpoints/discord-v8fsc-500k-1024 --epoch 2⚠️ Limitations
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🧬 Lineage: Why V8 Exists
The single architectural insight that made V8 work: V7 lacked a dedicated channel for syntactic state. V8's state branch (d_s per layer, dilated causal conv, state-gated recombination) gives the model an explicit place to encode "what syntactic context am I in" — separate from "what byte comes next."
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<sub>Part of the <a href="https://github.com/llaa33219/MicroMixer-3">MicroMixer-3</a> research project — V8 (FSC-Mixer) family</sub>
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