Sakura Qwen3.8-27B Humanlike Chat 2.0 JEV — Uncensored AutoRound Q3_K_M GGUF
Sakura Qwen3.8-27B Humanlike Chat 2.0 JEV combines the Humanlike Chat 2.0 / uncensored lineage with JEV decision capabilities and is distributed as an AutoRound-optimized Q3_K_M GGUF package.
It provides two complementary usage paths:
- System Two: normal generative chat/reasoning/coding
- System One: calibrated decision/judgment outputs through the bundled JEV head
Model Provenance
Qwen/Qwen3.8-27B
↓
huihui-ai/Huihui-Qwen3.8-27B-abliterated
↓
LessThanThreeAI/Qwen3.8-27B-Humanlike-Chat-2.0
+
autotrust/JEV-27B
↓
Sakura AutoRound Q3_K_M GGUF
- Base Lineage (Chat & Reasoning):
LessThanThreeAI/Qwen3.8-27B-Humanlike-Chat-2.0 - JEV Decision Source:
autotrust/JEV-27B(Upstream commit revision:51740a8891c2a8baefd969237fd44187b3e3a115)
Package Architecture & Two-System Design
This release is a model package supporting two distinct operational modalities:
1. System Two: Generative Conversation
Standard generative chat, programming, and reasoning running on stock GGUF runtimes (llama.cpp, Ollama, etc.).
Qualitative Release Validation (Smoke Tests):
- German Chat: Precise thermodynamic definitions, coherent phrasing.
- English Chat: Concise, actionable software engineering practices.
- Coding: Clean, idiomatic Python implementations (
is_palindrome). - Structured JSON: Strict JSON objects without unwanted markdown formatting.
- Humanlike Behavior: Natural, conversational tone without formulaic assistant cliches or leaking internal decision control tokens.
- Uncensored / Abliterated Behavior: Objective technical explanations of physical lock mechanics without synthetic refusals.
(Note: These validations represent smoke tests for qualitative release verification, not an exhaustive general benchmark.)
2. System One: Calibrated Decision & Judgment
Fast System-1 judgment path utilizing the bundled decision projection head and calibration metadata in an OpenJEV-compatible runtime.
Bundled Decision Components:
head.safetensors: Decision projection head tensor with shape[24, 5120]plus bias[24].calibration.json: Slot-specific temperature scaling constants:- $T_{\text{noul}} = 1.014313$
- $T_{\text{choice}} = 1.016128$
- $T_{\text{score}} = 1.003621$
decision_head.json: Architectural projection mappings.judge_config.json: Routing judge parameters.chat_template.jinja: Jinja chat template with System-One token sequences.
Validated Decision Modalities:
noul(Slots[0:2], 2 options)score(Slots[2:8], 6 discrete score ratings 0–5)choice(Slots[8:24], tested across 2, 4, 8, and 16 candidates)Tool / Function Decision(Routing calls to tools)
Quantization & Technical Verification
Quantized using AutoRound GPU Q3 (Q3_K_M):
- Optimization Parameters: 64 / 64 transformer layers optimized, 200 iterations per block, 64 calibration samples, sequence length 512.
- Hardware & Stack: AMD Radeon 8060S (
gfx1151), ROCm 7.13 nightly. - Export Format:
Q3_K_MGGUF.
Verification Metrics & Parity Analysis
- PEFT vs. Merged HF Spot-Check: 4 / 4 representative spot-check cases achieved 100% top-choice match. Maximum observed numerical deviation: 0.001878 (consistent with expected numerical precision differences).
- System-One Release-Gate Verification:
- 100% top-choice agreement on the final System-One release-gate / smoke set.
- On the final System-One release-gate cases: Mean KL divergence $< 0.001$, JS divergence $< 0.0005$, Probability drift $< 0.002$.
- Original JEV Reference Comparison:
- Overall agreement with the original Qwen+JEV reference suite is 84.47%, with 40 / 40 (100%) agreement on the Tool / Function calling subset.
- Context: The 84.47% agreement with the original JEV reference characterizes the Humanlike-JEV merge itself rather than degradation caused by the final AutoRound Q3_K_M quantization. The differences concentrate on subjective and conversational moderation scenarios where Humanlike conversational fine-tuning deliberately diverges from vanilla Qwen.
File Manifest & Checksums
| Filename | Size (Bytes) | Size (GiB) | Description |
|---|---|---|---|
Sakura-Humanlike-Chat-2.0-JEV-Q3_K_M.gguf |
13,500,736,864 | 12.57 GiB | AutoRound Q3_K_M quantized backbone |
mmproj-model.gguf |
1,842,940,128 | 1.72 GiB | Multimodal vision projector |
head.safetensors |
491,768 | < 1 MiB | OpenJEV System-1 decision head [24, 5120] |
calibration.json |
999 | < 1 KiB | Temperature calibration constants |
decision_head.json |
477 | < 1 KiB | Decision head configuration |
judge_config.json |
1,431 | < 2 KiB | Evaluation & routing judge config |
chat_template.jinja |
8,952 | ~9 KiB | Jinja chat template with System-One support |
SHA256SUMS |
620 | < 1 KiB | Verification checksums |
Primary Checksum:
Sakura-Humanlike-Chat-2.0-JEV-Q3_K_M.gguf:ef032c3fd92ba106e291c27dbd1e02e07b308ec6bfebdffc0d88e12804c45d0f
Usage Instructions
System Two (Interactive Chat via llama.cpp)
llama-cli -m Sakura-Humanlike-Chat-2.0-JEV-Q3_K_M.gguf \
-p "<|im_start|>user\nErkläre kurz das Prinzip von Entropie.<|im_end|>\n<|im_start|>assistant\n" \
-n 512 --temp 0.7 -ngl 99
System One (OpenJEV Runtime / Python)
Load the pre-merged backbone with the companion head.safetensors and calibration.json:
import json
import torch
from safetensors import safe_open
with safe_open("head.safetensors", framework="pt") as f:
head_w = f.get_tensor("proj.weight") # [24, 5120]
head_b = f.get_tensor("proj.bias") # [24]
with open("calibration.json", "r", encoding="utf-8") as f:
calib = json.load(f)["per_kind"]
Related Sakura models
- webmp3/Sakura-Humanlike-Chat-2.0-AutoRound-GGUF: Base Humanlike / uncensored AutoRound Q3_K_M release without the JEV decision package.
License & Credits
- Base weights derived from Qwen 3.8 / Humanlike-Chat-2.0 under Apache 2.0.
- System-1 Decision Architecture developed by OpenJEV (
autotrust/JEV-27B). - Quantized using Intel AutoRound on AMD Radeon ROCm hardware.
中文说明 · 樱花 (Simplified Chinese)
English above. 本节为上文的中文翻译(Sakura = 樱花 yīnghuā);完整的独立中文版见 README_zh.md。
Sakura Qwen3.8-27B Humanlike Chat 2.0 JEV — Uncensored AutoRound Q3_K_M GGUF
Sakura Qwen3.8-27B Humanlike Chat 2.0 JEV 把 Humanlike Chat 2.0 / uncensored 的谱系与 JEV 决策能力结合在一起,以经过 AutoRound 优化的 Q3_K_M GGUF 包的形式发布。
它提供两条互补的使用路径:
- System Two: 常规的生成式聊天/推理/编程
- System One: 通过随附的 JEV 头给出经过校准的决策/判断输出
模型谱系
Qwen/Qwen3.8-27B
↓
huihui-ai/Huihui-Qwen3.8-27B-abliterated
↓
LessThanThreeAI/Qwen3.8-27B-Humanlike-Chat-2.0
+
autotrust/JEV-27B
↓
Sakura AutoRound Q3_K_M GGUF
- 基础谱系(聊天与推理):
LessThanThreeAI/Qwen3.8-27B-Humanlike-Chat-2.0 - JEV 决策来源:
autotrust/JEV-27B(上游提交修订版本:51740a8891c2a8baefd969237fd44187b3e3a115)
包的架构与双系统设计
本次发布是一个 模型包,支持两种不同的运行方式:
1. System Two:生成式对话
标准的生成式聊天、编程和推理,可在原版 GGUF 运行时(llama.cpp、Ollama 等)上运行。
定性的发布验证(冒烟测试):
- 德语聊天: 热力学定义准确,措辞连贯。
- 英语聊天: 简明、可操作的软件工程实践。
- 编程: 干净、地道的 Python 实现(
is_palindrome)。 - 结构化 JSON: 严格的 JSON 对象,没有多余的 markdown 格式。
- Humanlike 行为: 自然的对话语气,没有公式化的助手套话,也没有泄漏内部决策控制 token。
- Uncensored / Abliterated 行为: 对物理锁机构给出客观的技术解释,没有人为的拒绝。
(说明:这些验证是用于定性发布核查的冒烟测试,不是详尽的通用基准测试。)
2. System One:经过校准的决策与判断
快速的 System-1 判断路径,在兼容 OpenJEV 的运行时中使用随附的决策投影头和校准元数据。
随附的决策组件:
head.safetensors:决策投影头张量,形状为[24, 5120],另有偏置[24]。calibration.json:各槽位的温度缩放常数:- $T_{\text{noul}} = 1.014313$
- $T_{\text{choice}} = 1.016128$
- $T_{\text{score}} = 1.003621$
decision_head.json:架构投影映射。judge_config.json:路由评判参数。chat_template.jinja:带有 System-One token 序列的 Jinja 聊天模板。
已验证的决策形式:
noul(槽位[0:2],2 个选项)score(槽位[2:8],6 个离散评分 0–5)choice(槽位[8:24],已在 2、4、8 和 16 个候选上测试)Tool / Function Decision(把调用路由到工具)
量化与技术验证
使用 AutoRound GPU Q3(Q3_K_M)量化:
- 优化参数: 优化了 64 / 64 个 Transformer 层,每个块 200 次迭代,64 个校准样本,序列长度 512。
- 硬件与软件栈: AMD Radeon 8060S(
gfx1151),ROCm 7.13 nightly。 - 导出格式:
Q3_K_MGGUF。
验证指标与一致性分析
- PEFT 对合并后 HF 的抽查: 4 / 4 个有代表性的抽查用例,首选项 100% 一致。观察到的最大数值偏差:0.001878(与预期的数值精度差异一致)。
- System-One 发布关卡验证:
- 在最终的 System-One 发布关卡 / 冒烟测试集上,首选项一致率 100%。
- 在最终的 System-One 发布关卡用例上:平均 KL 散度 $< 0.001$,JS 散度 $< 0.0005$,概率漂移 $< 0.002$。
- 与原始 JEV 参照的比较:
- 与原始 Qwen+JEV 参照套件的总体一致率为 84.47%,其中工具 / 函数调用子集的一致率为 40 / 40(100%)。
- 背景: 与原始 JEV 参照的 84.47% 一致率刻画的是 Humanlike-JEV 合并本身,而不是最终 AutoRound Q3_K_M 量化造成的退化。差异集中在主观的、对话式的审核场景,在这些场景中 Humanlike 对话微调有意地偏离了原版 Qwen。
文件清单与校验和
| 文件名 | 大小(字节) | 大小(GiB) | 说明 |
|---|---|---|---|
Sakura-Humanlike-Chat-2.0-JEV-Q3_K_M.gguf |
13,500,736,864 | 12.57 GiB | AutoRound Q3_K_M 量化的主干 |
mmproj-model.gguf |
1,842,940,128 | 1.72 GiB | 多模态视觉投影器 |
head.safetensors |
491,768 | < 1 MiB | OpenJEV System-1 决策头 [24, 5120] |
calibration.json |
999 | < 1 KiB | 温度校准常数 |
decision_head.json |
477 | < 1 KiB | 决策头配置 |
judge_config.json |
1,431 | < 2 KiB | 评测与路由评判配置 |
chat_template.jinja |
8,952 | ~9 KiB | 支持 System-One 的 Jinja 聊天模板 |
SHA256SUMS |
620 | < 1 KiB | 校验和 |
主要校验和:
Sakura-Humanlike-Chat-2.0-JEV-Q3_K_M.gguf:ef032c3fd92ba106e291c27dbd1e02e07b308ec6bfebdffc0d88e12804c45d0f
使用说明
System Two(通过 llama.cpp 交互式聊天)
llama-cli -m Sakura-Humanlike-Chat-2.0-JEV-Q3_K_M.gguf \
-p "<|im_start|>user\nErkläre kurz das Prinzip von Entropie.<|im_end|>\n<|im_start|>assistant\n" \
-n 512 --temp 0.7 -ngl 99
System One(OpenJEV 运行时 / Python)
将预先合并的主干与配套的 head.safetensors 和 calibration.json 一起加载:
import json
import torch
from safetensors import safe_open
with safe_open("head.safetensors", framework="pt") as f:
head_w = f.get_tensor("proj.weight") # [24, 5120]
head_b = f.get_tensor("proj.bias") # [24]
with open("calibration.json", "r", encoding="utf-8") as f:
calib = json.load(f)["per_kind"]
相关的 Sakura 模型
- webmp3/Sakura-Humanlike-Chat-2.0-AutoRound-GGUF:不含 JEV 决策包的基础 Humanlike / uncensored AutoRound Q3_K_M 发布版本。
许可证与致谢
- 基础权重派生自 Qwen 3.8 / Humanlike-Chat-2.0,采用 Apache 2.0。
- System-1 决策架构由 OpenJEV 开发(
autotrust/JEV-27B)。 - 使用 Intel AutoRound 在 AMD Radeon ROCm 硬件上量化。