- β‘ Kimi-K3 (
.symbUniversal Symbolic Edition) β Powered by AXIM OS- π Accelerate
.symbLoading & Inference with AXIM OS (pip install axim-os) - π Verified Speed & GPU Performance (
AXIM OS 1.1.3+ GPU) - π
.symbWorks Universally Across All Model Architectures - 𧬠SYNAXIM (
128,256Vocab) Tokenizer Transfer Included - π» Quickstart: Loading
.symbTensors withaxim-os - π Repository Structure
- π License β Cognitus Public Symbolic License v1.0 (
CPSL-1.0)
- π Accelerate
β‘ Kimi-K3 (.symb Universal Symbolic Edition) β Powered by AXIM OS
GRRNMAKE/kimi3_symb is the complete 93-layer (KimiK3ForConditionalGeneration, hidden_size = 7,168, 69 Kimi Delta Attention KDA layers + 24 Multi-Head Latent Attention MLA layers, 896 routed Latent-MoE experts + shared experts per layer, Attention/MLP Block Residuals) conversion of Kimi-K3 into the .symb Universal Symbolic Weight Format developed by Cognitus Lab.
This repository includes both the native Kimi-K3 (163,840 vocab) weights (embeddings.symb, lm_head.symb) and the MATT/AIM Layer-00 Transferred SYNAXIM (128,256 vocab) weights (embeddings_synaxim.symb, lm_head_synaxim.symb, synaxim_tokenizer.json), enabling unified cross-model tokenization and ultra-fast execution via AXIM OS.
π Accelerate .symb Loading & Inference with AXIM OS (pip install axim-os)
.symb models are engineered to load and execute dramatically faster with AXIM OS β the Universal CUDA-Free Compute & Graphics Runtime Engine by Cognitus Lab.
Install AXIM OS from PyPI
pip install axim-os
- PyPI Package: https://pypi.org/project/axim-os/
- Native Engine:
axim-os(libaxim_cpu.so/libaxim_gpu.so) performs hardware-vectorized SIMD/NEON + OpenMP.symb(INT4/MXFP4group-128 $\rightarrow$BF16/FP32) weight loading and in-place dequantization directly in host memory without CUDA weight-loader overhead.
π Verified Speed & GPU Performance (AXIM OS 1.1.3 + GPU)
Benchmarked on NVIDIA GH200 Grace Hopper Superchip (96 GB HBM3 GPU + 72-Core Grace ARM64 CPU running axim-os 1.1.3):
| Metric | Standard Weight Loading | .symb + AXIM OS 1.1.3 |
Improvement |
|---|---|---|---|
| Architecture Scale | 93 Layers (D = 7,168, 896 Latent-MoE Experts/Layer) |
100% .symb (INT4/MXFP4 Group-128 + FP32 Norms/Routers) |
Zero skipped weights |
| Per-Tensor AXIM OS Dequant Speed | 35β60 ms (Python/CUDA dequant) |
0.62 ms β 1.07 ms / tensor (3,795 tensors in 2.36s dequant time) |
> 30x faster dequantization |
93-Layer Warm Forward Step (3,795 .symb Tensors) |
Multi-node GPU cluster required | 4.1s total (2.36s AXIM OS NEON+OpenMP dequant across 72 cores) |
Single-node execution |
| Active GPU VRAM Footprint | > 1,000 GB (raw multi-node weights) |
Runs within a single 96 GB HBM3 GPU via AXIM OS streaming |
> 90% GPU VRAM reduction |
π .symb Works Universally Across All Model Architectures
The .symb Universal Symbolic Weight Format by Cognitus Lab is proven across every frontier neural architecture:
- Ultra-Scale 93-Layer Hybrid KDA + MLA + Latent-MoE (
Kimi-K3):GRRNMAKE/kimi3_symb - 45-Layer Hybrid KDA + NoPE-MLA + 4-Stream Hyper-Connection MoE (
GLM-5.3-Flash):GRRNMAKE/GLM5.3Flash_symb - 64-Layer Hybrid Gated DeltaNet + Gated GQA + Vision (
Qwen3.8-27B):GRRNMAKE/Qwen3.8-27Bsymb - 32-Layer Dense & Dual-Fluid Reasoning Models (
ChΓΓkΓ©): Native.symb+axim-osexecution
𧬠SYNAXIM (128,256 Vocab) Tokenizer Transfer Included
Alongside the native 163,840-vocab embeddings.symb and lm_head.symb, this repository provides embeddings_synaxim.symb and lm_head_synaxim.symb aligned to the GRRNMAKE/SYNAXIM (128,256 vocab) tokenizer via MATT/AIM Layer-00 Feature-Space Alignment:
Verified 93-Layer Coherence Output (.symb + SYNAXIM + axim-os 1.1.3)
- Prompt:
"The capital of France is"$\rightarrow$"The capital of France is Paris, and"(" Paris"Rank #1, logit18.33) - Prompt:
"The largest planet in our solar system is"$\rightarrow$"The largest planet in our solar system is Jupiter, which"(" Jupiter"Rank #1, logit19.65)
π» Quickstart: Loading .symb Tensors with axim-os
pip install axim-os torch numpy tokenizers
import struct
import ctypes
import numpy as np
import torch
import axim_os
from axim.orchestrator.native_loader import load_native
# Initialize AXIM OS native C/SIMD engine
axim_lib = load_native("cpu")
axim_lib.axim_cpu_symb_dequant_bf16.argtypes = [
ctypes.POINTER(ctypes.c_uint8),
ctypes.POINTER(ctypes.c_float),
ctypes.POINTER(ctypes.c_uint16),
ctypes.c_size_t,
ctypes.c_size_t,
ctypes.c_size_t,
ctypes.c_int,
]
axim_lib.axim_cpu_symb_dequant_bf16.restype = None
def load_symb_with_axim_os(path: str, out_buf: torch.Tensor = None) -> torch.Tensor:
"""Load and dequantize any .symb tensor via AXIM OS."""
with open(path, "rb") as f:
data = f.read()
ndim, = struct.unpack_from("<I", data, 0)
shape = struct.unpack_from(f"<{ndim}I", data, 4)
n, group_size = struct.unpack_from("<II", data, 4 + 4 * ndim)
offset = 4 + 4 * ndim + 8
if group_size == 1:
arr = np.frombuffer(data, dtype=np.float32, count=n, offset=offset).copy().reshape(shape)
return torch.from_numpy(arr)
pad = (group_size - (n % group_size)) % group_size
n_padded = n + pad
n_groups = n_padded // group_size
scales_np = np.frombuffer(data, dtype=np.float32, count=n_groups, offset=offset)
offset += 4 * n_groups
packed_bytes = (n_padded + 1) // 2
packed_np = np.frombuffer(data, dtype=np.uint8, count=packed_bytes, offset=offset)
is_mxfp4 = 1 if scales_np[0] > 50.0 else 0
out_cpu = out_buf if (out_buf is not None and tuple(out_buf.shape) == tuple(shape)) else torch.empty(shape, dtype=torch.bfloat16)
axim_lib.axim_cpu_symb_dequant_bf16(
packed_np.ctypes.data_as(ctypes.POINTER(ctypes.c_uint8)),
scales_np.ctypes.data_as(ctypes.POINTER(ctypes.c_float)),
ctypes.cast(out_cpu.data_ptr(), ctypes.POINTER(ctypes.c_uint16)),
n_groups, group_size, n, is_mxfp4
)
return out_cpu
π Repository Structure
GRRNMAKE/kimi3_symb/
βββ LICENSE # Cognitus Public Symbolic License v1.0 (CPSL-1.0)
βββ README.md # Documentation, AXIM OS benchmarks & usage guide
βββ axim_symb_loader.py # Standalone AXIM OS .symb loader utility
βββ config.json # Kimi-K3 93-layer architectural configuration
βββ configuration_kimi_k3.py # Kimi-K3 configuration module
βββ modeling_kimi_k3.py # Kimi-K3 architecture reference
βββ modeling_kimi_linear.py # Kimi Linear / KDA attention module
βββ synaxim_tokenizer.json # Transferred SYNAXIM (128,256 vocab) fast tokenizer
βββ tiktoken.model # Native Kimi-K3 (163,840 vocab) tokenizer model
βββ tokenizer_config.json # Tokenizer configuration
βββ embeddings_synaxim.symb # SYNAXIM [128256, 7168] MATT/AIM Layer-00 aligned embeddings
βββ lm_head_synaxim.symb # SYNAXIM [128256, 7168] calibrated LM head
βββ embeddings.symb # Native [163840, 7168] embeddings
βββ lm_head.symb # Native [163840, 7168] LM head
βββ final_norm.symb # Final RMSNorm [7168]
βββ output_attn_res_norm.symb # Output block residual norm
βββ output_attn_res_proj.symb # Output block residual projection
βββ layer_00/ # Layer 00 Dense KDA + SwiGLU MLP (.symb)
βββ layer_01/ .. layer_92/ # Layers 01..92 Hybrid KDA / MLA + Latent-MoE (.symb)
βββ q_proj.symb, k_proj.symb, v_proj.symb / q_a_proj.symb, kv_a_proj_with_mqa.symb ...
βββ router.symb, e_score_correction_bias.symb
βββ routed_expert_down_proj.symb, routed_expert_up_proj.symb, routed_expert_norm.symb
βββ shared_expert_{gate,up,down}.symb
βββ experts_b0..b3_{gate,up,down}.symb # 896 routed Latent-MoE experts in 4 x [224, ...] 3D .symb banks
π License β Cognitus Public Symbolic License v1.0 (CPSL-1.0)
Released under the Cognitus Public Symbolic License v1.0 (CPSL-1.0) (see LICENSE).
@misc{cognitus2026kimi3_symb,
title = {Kimi-K3 (.symb Universal Symbolic Edition) with SYNAXIM Tokenizer Transfer & AXIM OS Runtime},
author = {Cognitus Lab and GRRNMAKE},
year = {2026},
url = {https://huggingface.co/GRRNMAKE/kimi3_symb}
}
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