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TensorSharp
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AI工具

TensorSharp

基于 C# · 开源免费,本地部署,数据完全自主可控
⭐ 100 Stars 🍴 5 Forks 💻 C# 📄 BSD-3-Clause 🏷 AI 8.0分
8.0AI 综合评分
LLMC#GGUinference
✦ AI Skill Hub 推荐

经 AI Skill Hub 精选评估,TensorSharp 获评「强烈推荐」。这款AI工具在功能完整性、社区活跃度和易用性方面表现出色,AI 评分 8.0 分,适合有一定技术背景的用户使用。

📚 深度解析

TensorSharp 是一款基于 C# 的开源工具,在 GitHub 上收获 0k+ Star,是LLM、C#、GGU、inference领域中的优质开源项目。开源工具的最大优势在于代码完全透明,你可以审计每一行代码的安全性,也可以根据自身需求进行二次开发和定制。

**为什么要使用开源工具而非商业 SaaS?**
对于个人开发者和有隐私需求的用户,本地部署的开源工具意味着数据不离本机,不受第三方服务商的数据政策约束。同时,开源工具通常没有使用次数限制和月度费用,一次安装即可长期使用,对于高频使用场景的总拥有成本(TCO)远低于订阅制商业工具。

**安装与环境准备**
TensorSharp 依赖 C# 运行环境。建议通过 pyenv(Python)或 nvm(Node.js)管理 C# 版本,避免全局环境污染。对于新手用户,推荐先创建虚拟环境(python -m venv venv && source venv/bin/activate),再安装依赖,这样即使出现问题也可以随时删除虚拟环境重新开始,不影响系统稳定性。

**社区与维护**
GitHub Issue 和 Discussion 是获取帮助的最快渠道。在提问前建议先检查 Closed Issues(已关闭的问题),大多数常见问题都已有解答。遇到 Bug 时,提供 pip list 的输出、完整错误堆栈和最小可复现示例,能显著提高开发者响应速度。AI Skill Hub 将持续追踪 TensorSharp 的版本更新,及时通知重要功能变化。

📋 工具概览

TensorSharp 是一款基于 C# 开发的开源工具,专注于 LLM、C#、GGU 等核心功能。作为 GitHub 开源项目,它拥有活跃的社区支持和持续的版本迭代,代码完全透明可审计,支持本地部署以保护数据隐私。无论是个人使用还是集成到企业工作流,都能提供稳定可靠的解决方案。

GitHub Stars
⭐ 100
开发语言
C#
支持平台
Windows / macOS / Linux
维护状态
轻量级项目,按需更新
开源协议
BSD-3-Clause
AI 综合评分
8.0 分
工具类型
AI工具
Forks
5

📖 中文文档

以下内容由 AI Skill Hub 根据项目信息自动整理,如需查看完整原始文档请访问底部「原始来源」。

TensorSharp 是一款基于 C# 开发的开源工具,专注于 LLM、C#、GGU 等核心功能。作为 GitHub 开源项目,它拥有活跃的社区支持和持续的版本迭代,代码完全透明可审计,支持本地部署以保护数据隐私。无论是个人使用还是集成到企业工作流,都能提供稳定可靠的解决方案。

📌 核心特色
  • 开源免费,支持本地部署,数据完全自主可控
  • 活跃的 GitHub 开源社区,持续迭代更新
  • 提供详细文档和使用示例,新手友好
  • 支持自定义配置,灵活适配不同使用环境
  • 可作为基础组件集成进现有技术栈或进行二次开发
🎯 主要使用场景
  • 本地部署运行,保护数据隐私,满足合规要求
  • 自定义集成到现有系统,扩展技术栈能力
  • 作为开源基础组件进行商业化二次开发
以下安装命令基于项目开发语言和类型自动生成,实际以官方 README 为准。
安装命令
# 克隆仓库
git clone https://github.com/zhongkaifu/TensorSharp
cd TensorSharp

# 查看安装说明
cat README.md

# 按 README 完成环境依赖安装后即可使用
📋 安装步骤说明
  1. 访问 GitHub 仓库页面
  2. 按照 README 文档完成依赖安装
  3. 根据系统环境完成初始化配置
  4. 参考官方示例或文档开始使用
  5. 遇到问题可在 GitHub Issues 中查找解答
以下用法示例由 AI Skill Hub 整理,涵盖最常见的使用场景。
常用命令 / 代码示例
# 查看帮助
tensorsharp --help

# 基本运行
tensorsharp [options] <input>

# 详细使用说明请查阅文档
# https://github.com/zhongkaifu/TensorSharp
以下配置示例基于典型使用场景生成,具体参数请参照官方文档调整。
配置示例
# tensorsharp 配置说明
# 查看配置选项
tensorsharp --config-example > config.yml

# 常见配置项
# output_dir: ./output
# log_level: info
# workers: 4

# 环境变量(覆盖配置文件)
export TENSORSHARP_CONFIG="/path/to/config.yml"
📑 README 深度解析 真实文档 完整度 87/100 查看 GitHub 原文 →
以下内容由系统直接从 GitHub README 解析整理,保留代码块、表格与列表结构。

简介

# TensorSharp

<p align="center"> <img src="imgs/banner_1.png" alt="TensorSharp logo" width="320"> </p>

English | 中文

A C# inference engine for running GGUF language models locally, including autoregressive LLMs and DiffusionGemma-style text-diffusion models. TensorSharp provides a console application, a web-based chatbot interface, and Ollama/OpenAI-compatible HTTP APIs for programmatic access.

Highlights

  • Continuous batching & paged KV cache — vLLM-style paged KV pool with block-hash prefix sharing and an iteration-level scheduler, on by default in the server. → deep dive
  • MTP / NextN speculative decoding — multi-token-prediction draft heads accelerate solo decode on Qwen 3.6 (NextN block embedded in the trunk GGUF) and Gemma 4 (separate gemma4-assistant draft GGUF). The draft proposes several tokens per step and the trunk verifies them in one batched forward, with the request's own sampler driving both. Opt in with --mtp-spec (+ --mtp-draft-model for Gemma 4). → Speculative decoding
  • DiffusionGemma text diffusion — block-wise EntropyBound denoising over a Gemma-4-derived MoE backbone, with CLI generation flags and a Web UI denoising preview stream. → DiffusionGemma card
  • Multimodal — image / video / audio inputs (Gemma 4); image inputs for Gemma 3, Qwen 3.5-family, Mistral 3, and Nemotron-H Omni. → Multimodal Support
  • Tool calling / function calling — multi-turn tool calls across all three API styles, with architecture-agnostic output parsing. → Tool Calling
  • Thinking / reasoning mode — structured chain-of-thought for Qwen 3, Qwen 3.5/3.6-family, Gemma 4, GPT OSS, and Nemotron-H. → Thinking Mode
  • Ollama- & OpenAI-compatible APIs — drop-in endpoints for existing tooling, plus a browser chat UI. → HTTP APIs
  • Native quantized compute — Q4_K_M / Q8_0 / MXFP4 / IQ2_XXS and more run in matmul without dequantizing to FP32.

---

Everything below is detailed reference. New here? The five sections above are all you need to get running.

Features

  • Multi-architecture support -- Gemma 4, Gemma 3, DiffusionGemma, Qwen 3, Qwen 3.5/3.6-family, GPT OSS, Nemotron-H, Mistral 3
  • Multimodal inference -- image, video, and audio inputs (Gemma 4); images for Gemma 3 / Qwen 3.5-family / Mistral 3 / Nemotron-H Omni
  • Thinking / reasoning mode -- structured chain-of-thought output with <think> / <|channel>thought / <|channel>analysis tags (Qwen 3, Qwen 3.5/3.6-family, Gemma 4, GPT OSS, Nemotron-H)
  • Tool calling / function calling -- models can invoke user-defined tools; multi-turn tool-call conversations supported across all three API styles
  • Quantized model support -- loads GGUF files with Q4_K_M, Q8_0, F16, MXFP4, and other quantization formats; performs native quantized matmul without dequantizing to FP32, including memory-efficient pure C# CPU loading for large GGUFs
  • GPU-accelerated -- GGML Metal on macOS, GGML CUDA on Windows/Linux with NVIDIA GPUs, a direct CUDA/cuBLAS backend with PTX kernels, and an MLX backend for Apple Silicon (mlx-c / Metal), all with CPU fallbacks for unsupported ops
  • Optimized pure C# CPU backend -- managed GEMM fast paths plus fused SIMD kernels for RMSNorm, RoPE, softmax, fused activations, and other inference hot paths
  • Continuous batching & paged KV cache -- vLLM-style block-paged KV pool with block-hash prefix sharing across requests, iteration-level scheduler that admits / preempts sequences mid-batch, optional SSD-backed tier for very large KV working sets, and a native fused paged-attention kernel (TSGgml_PagedAttentionForward) that drives ggml_flash_attn_ext on Metal/CUDA. Enabled by default in TensorSharp.Server; opt-out with --no-continuous-batching. See docs/PAGED_ATTENTION_AND_CONTINUOUS_BATCHING.md.
  • MTP / NextN speculative decoding -- multi-token-prediction draft heads accelerate solo (non-concurrent) decode. Qwen 3.6 ships its NextN block fused into the trunk GGUF; Gemma 4 loads a separate EAGLE-style gemma4-assistant draft GGUF via --mtp-draft-model whose draft layers attend the target's own KV cache. The draft proposes up to --mtp-draft tokens per step (kept while draft confidence ≥ --mtp-pmin) and the trunk verifies them in a single batched forward; the request's own sampler — penalties included — drives both drafting and verification, so output is identical to standard decode. Opt in with --mtp-spec (off by default). On ggml backends fused multi-token-verify / draft-step kernels make it a clear win; the pure-C# cuda backend runs a fully GPU-resident per-op verify/draft and is also a win. CPU / MLX stay on standard decode. Env: TS_MTP_* (shared) and TS_GMTP_* (Gemma 4 tuning).
  • Batched / parallel inference -- IBatchedPagedModel.ForwardBatch implementations for Mistral 3, Gemma 4, GPT OSS, Qwen 3, Qwen 3.5/3.6-family, and Nemotron-H all run by default and pack N sequences into a single forward pass with paged K/V scatter and per-sequence attention via the native kernel. Each model exposes a TS_<FAMILY>_BATCHED=0 escape hatch (e.g. TS_GEMMA4_BATCHED=0, TS_QWEN35_BATCHED=0, TS_GPTOSS_BATCHED=0, TS_NEMOTRON_BATCHED=0) to fall back to the per-sequence KV-swap path for A/B comparison or regression isolation.
  • Ollama & OpenAI API compatibility -- drop-in replacement endpoints for existing tooling
  • Configurable sampling -- temperature, top-k, top-p, min-p, repetition/presence/frequency penalties, seed, stop sequences
  • Chat templates -- auto-loaded from GGUF metadata (Jinja2), with hardcoded fallbacks per architecture
  • Inference engine -- the new InferenceEngine (worker-thread scheduler + paged block pool) replaces the legacy single-request FIFO queue inside TensorSharp.Server. The old queue object is now a compatibility shim for status/event shapes; the engine itself handles concurrency.
  • Batch processing -- JSONL input support in the console application, plus a built-in inference benchmark for prefill/decode throughput
  • Streaming -- token-by-token output via SSE (web) or stdout (console), with abort/stop support for in-flight generations
  • Text-diffusion generation -- DiffusionGemma uses an iterative EntropyBound denoising sampler instead of autoregressive Forward(). The CLI exposes --diffusion-steps, --diffusion-seed, and --diffusion-blocks; the Web UI streams whole-message replace events for live denoising previews and batches concurrent diffusion requests through DiffusionBatchScheduler.
  • Hybrid SSM-Transformer -- Nemotron-H mixes Mamba2 SSM layers, attention-only layers, and MoE FFN layers in a single model. The Mamba2 step has both a per-sequence native kernel and a batched native kernel (TSGgml_NemotronMamba2BatchedStepF32, NEON SIMD + GCD parallelism) used by the batched path.
  • Hybrid Attention-Recurrent -- Qwen 3.5/3.6-family models mix full-attention layers with GatedDeltaNet recurrent layers; the batched path keeps recurrent running state in a per-slot recurrent-state pool
  • Mixture of Experts -- Gemma 4 MoE variants (e.g. gemma-4-26B-A4B), GPT OSS MoE (e.g. gpt-oss-20b), Qwen 3.5/3.6-family MoE (qwen35moe / qwen3next variants such as Qwen3.5-35B-A3B), and Nemotron-H MoE FFN layers
  • Batched GPU MoE -- a single fused GGML graph dispatch handles all selected experts (plus the optional shared expert and residual add) for Qwen 3.5/3.6-family and Nemotron-H decode, eliminating per-expert round-trips
  • KV cache codecs -- pluggable codec interface (IKvBlockCodec) with a built-in TurboQuant (Q4 / Q8) compressed codec for paged blocks, configurable via --paged-kv-quant-bits
  • Message editing -- edit or delete previous messages in the web chat UI and regenerate from that point
  • Text/Image/Audio/Video uploads -- the web UI accepts file uploads up to 500 MB, with automatic token-budget-aware truncation for large text files
  • Per-turn observability -- structured logs capture the full user input and the full raw assistant output (both <think> reasoning and the final result) plus the KV cache hit ratio. The same cache-hit stats are surfaced through every API: prompt_cache_hit_tokens / prompt_cache_hit_ratio (Ollama), usage.prompt_tokens_details.cached_tokens (OpenAI), and promptTokens / kvReusedTokens / kvReusePercent in the Web UI SSE done event

Prerequisites

  • .NET 10 SDK
  • git and network access: the GGML/CUDA native builds clone the ggml sources from github.com/ggml-org/ggml into ExternalProjects/ggml/ on first build (see eng/fetch-ggml.sh / eng/fetch-ggml.ps1). The clone tracks ggml's default branch (master); pin a different ref with TENSORSHARP_GGML_GIT_REF, or set TENSORSHARP_GGML_NO_UPDATE=1 to skip the network update once cloned (offline rebuilds)
  • macOS (Metal backend): CMake 3.20+ and Xcode command-line tools for building the native GGML library; the MLX backend additionally builds libmlxc from TensorSharp.Backends.MLX/Native/ via bash TensorSharp.Backends.MLX/build-native-macos.sh
  • Windows (GGML CPU / CUDA backends): CMake 3.20+ and Visual Studio 2022 C++ build tools; for ggml_cuda or cuda, install an NVIDIA driver plus CUDA Toolkit 12.x or another compatible CUDA toolkit with cuBLAS
  • Linux (GGML CPU / CUDA backends): CMake 3.20+; for ggml_cuda or cuda, install an NVIDIA driver plus CUDA Toolkit 12.x or another compatible CUDA toolkit with cuBLAS
  • GGUF model files (e.g., from Hugging Face)

Building

Build the entire solution

dotnet build TensorSharp.slnx

Build individual applications

```bash

Build the native GGML library

The native library is built automatically during the first dotnet build if it doesn't exist. To build it manually:

cd TensorSharp.GGML.Native

macOS:

bash build-macos.sh

Linux (CPU-only):

bash build-linux.sh

Linux (GGML_CUDA enabled):

bash build-linux.sh --cuda

Windows (CPU-only):

.\build-windows.ps1 --no-cuda

Windows (GGML_CUDA enabled):

.\build-windows.ps1 --cuda

On Windows and Linux, the native build script auto-detects the visible NVIDIA GPU compute capability and passes a narrow CMAKE_CUDA_ARCHITECTURES value to ggml-cuda (for example 86-real on an RTX 3080), which cuts CUDA build time substantially. The native build also runs in parallel by default with a conservative job cap so nvcc does not overwhelm typical developer machines.

If you want to override the auto-detected architecture list or the default build parallelism, use either environment variables or explicit build flags:

TENSORSHARP_GGML_NATIVE_CUDA_ARCHITECTURES='86-real;89-real' bash build-linux.sh --cuda
bash build-linux.sh --cuda --cuda-arch='86-real;89-real'
TENSORSHARP_GGML_NATIVE_BUILD_PARALLEL_LEVEL=2 bash build-linux.sh --cuda
$env:TENSORSHARP_GGML_NATIVE_CUDA_ARCHITECTURES='86-real;89-real'; .\build-windows.ps1 --cuda
.\build-windows.ps1 --cuda --cuda-arch='86-real;89-real'
$env:TENSORSHARP_GGML_NATIVE_BUILD_PARALLEL_LEVEL=2; .\build-windows.ps1 --cuda

You can also request a CUDA-enabled native build from dotnet build:

TENSORSHARP_GGML_NATIVE_ENABLE_CUDA=ON dotnet build TensorSharp.Cli/TensorSharp.Cli.csproj -c Release
$env:TENSORSHARP_GGML_NATIVE_ENABLE_CUDA='ON'; dotnet build TensorSharp.Cli/TensorSharp.Cli.csproj -c Release

On macOS this compiles libGgmlOps.dylib with Metal GPU support. On Windows and Linux, the native scripts preserve an existing CUDA-enabled build and auto-enable GGML_CUDA when a CUDA toolchain is detected; build-windows.ps1 --cuda, build-linux.sh --cuda, and TENSORSHARP_GGML_NATIVE_ENABLE_CUDA=ON force CUDA explicitly. The build output is automatically copied to the application's output directory.

The direct cuda backend is built as managed C# plus PTX kernels. During dotnet build, TensorSharp.Backends.Cuda compiles native/kernels/*.cu to native/ptx/*.ptx when nvcc is available; if nvcc is missing, the build continues and PTX-backed ops use CPU fallbacks. cuBLAS-backed GEMM still requires the CUDA runtime libraries to be discoverable at run time.

Build the native MLX library (macOS only)

The MLX backend depends on libmlxc (the C bindings for MLX). The repository pins a known-good tag of mlx-c in TensorSharp.Backends.MLX/Native/MLX_C_VERSION and a helper script fetches and builds it:

bash TensorSharp.Backends.MLX/build-native-macos.sh

The script writes the resulting libraries (libmlxc.dylib, libmlx.dylib, and any backend deps) into TensorSharp.Backends.MLX/Native/dist/. At run time the backend probes the application directory first; you can also point it to a custom install with TENSORSHARP_MLX_LIBRARY=<path-to-libmlxc.dylib> or TENSORSHARP_MLX_LIBRARY_DIR=<dir-with-libmlxc>. If the library cannot be located the backend reports unavailable and --backend mlx is rejected at startup.

Quick Start

Zero to a streaming reply in about 30 seconds (after the model download).

1. Prerequisites.NET 10 SDK, git, and (optionally) a GPU toolchain: NVIDIA → CUDA Toolkit 12.x; Apple Silicon → Xcode command-line tools (Metal is built in). Full list in Prerequisites.

2. Clone & build — the native GGML library is compiled automatically on the first build.

git clone https://github.com/zhongkaifu/TensorSharp.git
cd TensorSharp
dotnet build TensorSharp.slnx -c Release

3. Download a model — a small, well-tested starting point is Gemma-4-E4B (Q8_0) from ggml-org/gemma-4-E4B-it-GGUF. More options in Verified Models.

4. Run it — choose the --backend for your hardware (see Pick a Backend):

```bash

Usage

Configure server-wide default sampling parameters

open http://localhost:5000 — also serves Ollama- and OpenAI-compatible endpoints

```

The CLI binary lands in TensorSharp.Cli/bin/... and the server in TensorSharp.Server/bin/... after the build. Full options: CLI usage · Server usage.

NuGet Packages

The repository is now split along package boundaries so consumers can depend on only the layers they actually need.

ProjectNuGet packagePublic namespaceResponsibility
TensorSharp.CoreTensorSharp.CoreTensorSharpTensor primitives, ops, allocators, storage, and device abstraction
TensorSharp.RuntimeTensorSharp.RuntimeTensorSharp.RuntimeGGUF parsing, tokenizers, prompt rendering, sampling, output protocol parsing, paged KV cache, continuous-batching scheduler
TensorSharp.ModelsTensorSharp.ModelsTensorSharp.ModelsModelBase, architecture implementations, multimodal encoders, batched / paged forward passes, and model-side execution helpers
TensorSharp.Backends.GGMLTensorSharp.Backends.GGMLTensorSharp.GGMLGGML-backed execution and native interop
TensorSharp.Backends.CudaTensorSharp.Backends.CudaTensorSharp.CudaDirect CUDA allocator, storage, cuBLAS GEMM, PTX kernels, and quantized CUDA ops
TensorSharp.Backends.MLXTensorSharp.Backends.MLXTensorSharp.MLXApple Silicon MLX backend (mlx-c / Metal) with quantized / fused / compiled kernels and MoE expert offload
TensorSharp.ServerTensorSharp.ServerTensorSharp.ServerASP.NET Core server, OpenAI/Ollama adapters, inference engine host, web UI
TensorSharp.CliTensorSharp.CliTensorSharp.CliConsole host and debugging / batch tooling

This split keeps engine users off the web stack, keeps API-layer changes from leaking into core/runtime packages, and makes future benchmark or eval-harness projects easier to publish independently.

Validate package metadata and README dependency boundaries before publishing:

pwsh ./eng/verify-packages.ps1

The verifier runs dotnet pack for the public packages above and fails if an internal dependency such as AdvUtils leaks into the .nuspec, or if a TensorSharp package depends on a layer outside this table.

(compares with-cache vs forced-reset prefill latency for an 8-turn conversation)

./TensorSharp.Cli --model <model.gguf> --backend ggml_metal \ --bench-kvcache --bench-kv-turns 4 --max-tokens 64

Compare hardcoded fallback templates against GGUF Jinja2 templates for every

🎯 aiskill88 AI 点评 A 级 2026-06-17

高性能的C#推理引擎,支持本地运行LLM

📚 实用指南(长尾问题)
适合谁
  • 需要 TensorSharp 解决具体问题的开发者与运营人员
最佳实践
  • 先在测试环境跑通最小用例,再接入生产数据
常见错误
  • API key 直接提交到 git 仓库(请用 .env 并加入 .gitignore)
部署方案
  • 云端托管:可放在 Vercel / Railway / Fly.io 等 PaaS 平台
相关搜索
TensorSharp 中文教程TensorSharp 安装报错怎么办TensorSharp 与同类工具对比TensorSharp 最佳实践TensorSharp 适合谁用

⚡ 核心功能

👥 适合谁
  • 需要 TensorSharp 解决具体问题的开发者与运营人员
⭐ 最佳实践
  • 先在测试环境跑通最小用例,再接入生产数据
⚠️ 常见错误
  • API key 直接提交到 git 仓库(请用 .env 并加入 .gitignore)

👥 适合人群

AI 技术爱好者研究人员和学生开发者和工程师技术创业者

🎯 使用场景

  • 本地部署运行,保护数据隐私,满足合规要求
  • 自定义集成到现有系统,扩展技术栈能力
  • 作为开源基础组件进行商业化二次开发

⚖️ 优点与不足

✅ 优点
  • +BSD-3-Clause 协议,可免费商用
  • +完全开源免费,无授权费用
  • +本地部署,数据完全自主可控
  • +开发者社区支持,遇问题可查可问
⚠️ 不足
  • 安装和初始配置可能需要一定技术基础
  • 功能完整性通常不如成熟商业产品
  • 技术支持主要依赖开源社区,响应速度不稳定
⚠️ 使用须知

AI Skill Hub 为第三方内容聚合平台,本页面信息基于公开数据整理,不对工具功能和质量作任何法律背书。

建议在沙箱或测试环境中充分验证后,再部署至生产环境,并做好必要的安全评估。

📄 License 说明

✅ BSD 3-Clause — 宽松协议,可商用修改分发,禁止使用原作者名称进行背书宣传。

🔗 相关工具推荐

🧩 你可能还需要
基于当前 Skill 的能力图谱,自动补全的工具组合

❓ 常见问题 FAQ

TensorSharp是一个C#推理引擎,用于本地运行大型语言模型
💡 AI Skill Hub 点评

AI Skill Hub 点评:TensorSharp 的核心功能完整,质量优秀。对于AI 技术爱好者来说,这是一个值得纳入个人工具库的选择。建议先在非生产环境试用,再逐步推广。

📚 深入学习 TensorSharp
查看分步骤安装教程和完整使用指南,快速上手这款工具
🌐 原始信息
原始名称 TensorSharp
原始描述 开源AI工具:A C# inference engine for running large language models (LLMs) locally using GGU。⭐100 · C#
Topics LLMC#GGUinference
GitHub https://github.com/zhongkaifu/TensorSharp
License BSD-3-Clause
语言 C#
🔗 原始来源
🐙 GitHub 仓库  https://github.com/zhongkaifu/TensorSharp 🌐 官方网站  https://tensorsharp.ai

收录时间:2026-06-17 · 更新时间:2026-06-17 · License:BSD-3-Clause · AI Skill Hub 不对第三方内容的准确性作法律背书。

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