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AI Open Source Ecosystem & Developer Tools Landscape 2026

by needhelp
AI Open Source
llama.cpp
NVIDIA Sana
AI Agent
Hunyuan3D

Date: 2026-05-19 | Source: AI Daily News | Reading Time: ~20 min

Open Source AI Banner


1. Open Source Ecosystem Overview: A Single Spark Can Start a Prairie Fire

1.1 AI Open Source GitHub Stars Ranking 2026

xychart-beta
    title "AI Open Source GitHub Stars Ranking (10K)"
    x-axis ["llama.cpp", "12-Factor Agents", "TTS", "Sana", "Hunyuan3D"]
    y-axis "Stars (10K)" 0 --> 15
    bar "Stars" [11.1, 2.05, 0.83, 0.65, 0.18]

1.2 Ecosystem Relationship Map

graph TB
    subgraph Infrastructure Layer
        L["llama.cpp
111K⭐
Local Inference Engine"] end subgraph Model Layer S["NVIDIA Sana
6.5K⭐
Image Generation Model"] TTS["On-Device TTS
8.3K⭐
TTS Engine"] H3D["Tencent Hunyuan3D
1.8K⭐
3D Generation"] end subgraph Application Framework Layer A12["12-Factor Agents
20.5K⭐
Agent Development Guidelines"] end subgraph Upper Applications APP1["Local AI Assistant"] APP2["Creative Tools"] APP3["Game Development"] APP4["Education Apps"] APP5["Smart Hardware"] end L --> S L --> TTS L --> H3D S --> APP2 TTS --> APP4 TTS --> APP5 H3D --> APP3 A12 --> APP1 A12 --> APP2 A12 --> APP3 A12 --> APP4 A12 --> APP5

1.3 Open Source License Distribution

pie title AI Open Source License Distribution
    "MIT" : 35
    "Apache 2.0" : 28
    "GPL" : 15
    "BSD" : 12
    "Custom Commercial-Friendly" : 7
    "Other" : 3
---
## 2. llama.cpp: Minimalism in Local Inference
### 2.1 Project Overview
llama.cpp is a **pure C/C++** large language model inference engine developed by Georgi Gerganov. It makes running large models on ordinary computers possible and is the absolute主力 for edge deployment.
**Core Data**:
- **GitHub Stars**: 111,000+
- **Language**: C/C++ (pure native implementation)
- **Supported Models**: LLaMA, Mistral, Qwen, Yi, Baichuan, 100+
- **Hardware Support**: CPU (x86/ARM), GPU (CUDA/Vulkan/Metal), NPU
### 2.2 System Architecture
```mermaid
graph LR
subgraph Model Layer
M1["LLaMA Series"]
M2["Mistral Series"]
M3["Qwen Series"]
M4["Yi/Baichuan"]
M5["Custom GGUF"]
end
subgraph llama.cpp Core
M1 --> C["GGUF Format Loader"]
M2 --> C
M3 --> C
M4 --> C
M5 --> C
C --> Q["Quantization Engine<br/>Q4/Q5/Q6/Q8"]
Q --> B["Backend Abstraction Layer"]
B --> BE1["CPU Backend<br/>AVX/NEON"]
B --> BE2["CUDA Backend<br/>NVIDIA GPU"]
B --> BE3["Metal Backend<br/>Apple Silicon"]
B --> BE4["Vulkan Backend<br/>Cross-Platform GPU"]
end
BE1 --> O["Text Output"]
BE2 --> O
BE3 --> O
BE4 --> O

2.3 Quantization Technology Deep Dive

llama.cpp’s core innovation lies in model quantization, significantly reducing memory usage:

[\text{Compression Ratio} = \frac{\text{Original Parameters} \times 16 \text{ bit}}{\text{Quantized Parameters} \times q \text{ bit}}]

Quantization Level Bits per Parameter 7B Model Size Quality Loss Recommended Use
FP16 16 bit 13.5 GB 0% Training / High-precision inference
Q8_0 8 bit 6.8 GB < 1% High-quality local deployment
Q6_K 6 bit 5.2 GB ~2% Balance quality and speed
Q5_K_M 5 bit 4.3 GB ~3% Recommended daily use
Q4_K_M 4 bit 3.5 GB ~5% Resource-constrained devices
Q3_K_S 3 bit 2.7 GB ~10% Extreme compression
Q2_K 2 bit 1.8 GB ~20% Experimental only

2.4 Performance Benchmarks

[\text{Inference Speed} = \frac{\text{Token Count}}{\text{Time (s)}}]

xychart-beta
    title "llama.cpp Backend Inference Speed (tokens/s)
Model: Qwen2.5-7B-Q4_K_M" x-axis ["Mac Mini M4", "i9-14900K", "RTX 4090", "RTX 3060 Laptop", "Raspberry Pi 5"] y-axis "tokens/s" 0 --> 150 bar "Inference Speed" [45, 25, 120, 35, 5]

2.5 Code Example

Terminal window
# Install
git clone https://github.com/ggerganov/llama.cpp
cd llama.cpp && cmake -B build && cmake --build build --config Release
# Download and convert model
python convert_hf_to_gguf.py --src model_dir --dst model.gguf
# Run inference
./build/bin/llama-cli -m model.gguf -p "The future of AI is" -n 100
# Start API server
./build/bin/llama-server -m model.gguf --host 0.0.0.0 --port 8080

Local AI

Project: github.com/ggerganov/llama.cpp Docs: llama-cpp-python.readthedocs.io

---
## 3. On-Device Speech Synthesis: Making Devices Talk
### 3.1 Project Overview
This open-source project with **8,300+ Stars** implements **ultra-fast on-device text-to-speech (TTS)**, running natively on local devices, solving the problems of high latency and poor privacy in traditional cloud TTS.
### 3.2 Technical Architecture
```mermaid
graph LR
subgraph Input
T["Text"]
S["Speaker Reference"]
E["Emotion Control"]
end
subgraph TTS Pipeline
T --> TK["Text Frontend<br/>Grapheme→Phoneme"]
TK --> D["Duration Predictor<br/>$d_i = f_{dur}(p_i)$"]
D --> A["Acoustic Model<br/>$\mathbf{x} = f_{ac}(p, d)$"]
S --> V["Voice Encoder<br/>$\mathbf{v} = f_{vc}(s)$"]
E --> A
V --> VCV["Vocoder<br/>$\mathbf{o} = f_{vc}(\mathbf{x}, \mathbf{v})$"]
A --> VCV
end
VCV --> O["Audio Waveform"]

3.3 Mathematical Principles

Vocoder loss function (mel-spectrogram to waveform):

[\mathcal{L}{\text{total}} = \mathcal{L}{\text{mel}} + \lambda_{\text{adv}} \mathcal{L}{\text{adv}} + \lambda{\text{fm}} \mathcal{L}_{\text{fm}}]

Where:

[\mathcal{L}{\text{mel}} = | \phi{\text{mel}}(x) - \phi_{\text{mel}}(\hat{x}) |_1]

3.4 Performance Comparison

Solution First-packet Latency Real-time Factor (RTF) Quality (MOS) Offline Available
Cloud TTS (Commercial) 200-500ms < 0.1 4.5
Coqui TTS 2-5s 0.3 3.8
Piper 500ms 0.1 3.5
This Project < 50ms 0.05 4.2
StyleTTS 2 1s 0.2 4.3 ⚠️

3.5 Quick Start

# Install
pip install fast-tts-local
# Usage example
from tts import TTS
tts = TTS(model_name="zh-CN-female-1")
# Basic synthesis
audio = tts.synthesize("Hello, this is a local TTS test.")
# Voice cloning
audio_cloned = tts.clone(
reference_audio="speaker.wav",
text="This is a voice cloning test."
)
# Emotion control
audio_emotion = tts.synthesize(
"What a wonderful day!",
emotion="happy",
intensity=0.8
)
---
## 4. NVIDIA Sana: A New Paradigm for Fast Image Generation
### 4.1 Project Overview
NVIDIA's open-source Sana image generation model solves the pain point of **slow high-resolution image generation**, using an innovative architecture to achieve blazing-fast inference on laptops, earning **6,500+ Stars**.
### 4.2 Innovative Architecture
```mermaid
graph TD
subgraph Sana Architecture
I["Text Prompt + Noise Map<br/>\(x_T \sim \mathcal{N}(0, I)\)"]
I --> TE["Text Encoder<br/>Gemma/DeBERTa"]
I --> DE["Deep Compression Encoder<br/>\(32\times\) Compression"]
TE --> DIT["Linear Attention DiT<br/>Linear Attn Transformer"]
DE --> DIT
DIT --> DIT1["Layer 1-8<br/>Coarse Features"]
DIT1 --> DIT2["Layer 9-16<br/>Fine Features"]
DIT2 --> DIT3["Layer 17-24<br/>Super Resolution"]
DIT3 --> D["Decoder<br/>\(32\times\) Upsampling"]
D --> O["High-Res Image<br/>\(4096 \times 4096\)"]
end

4.3 Core Formulas

Linear Attention Mechanism:

[\text{Attention}(Q, K, V) = \frac{\phi(Q) \cdot (\phi(K)^T \cdot V)}{\phi(Q) \cdot \sum \phi(K)}]

Where (\phi(x) = \text{elu}(x) + 1), reducing complexity from (O(n^2)) (standard attention) to (O(n)).

Deep Compression Autoencoder (DC-AE):

[z = \text{DC-AE}_{\text{enc}}(x), \quad z \in \mathbb{R}^{\frac{H}{32} \times \frac{W}{32} \times C}]

Compared to traditional VAE’s (8\times) compression, DC-AE achieves (32\times) compression, significantly reducing DiT computation.

4.4 Performance

[\text{Speedup} = \frac{T_{\text{SDXL}}}{T_{\text{Sana}}} \approx 10\times]

Metric Sana-0.6B Sana-1.6B SDXL Flux-dev
Parameters 0.6B 1.6B 3.5B 12B
Resolution 4K 4K 1K 1K
RTX 4090 0.3s 0.9s 5s 15s
RTX 3060 1.2s 3.5s 12s 40s
Mac M3 Max 0.8s 2.5s 8s Not supported
Laptop Integrated GPU 5s 15s Not supported Not supported
FID Score 6.8 5.2 6.1 5.2

4.5 Deployment Guide

Terminal window
# Install
pip install sana-sprint
# Generate image (CLI)
sana-generate \
--model sana-1.6B \
--prompt "A futuristic cityscape at sunset, cyberpunk style" \
--resolution 4096x4096 \
--steps 20 \
--output result.png
# Python API
from sana import SanaPipeline
import torch
pipe = SanaPipeline.from_pretrained(
"nvidia/Sana-1.6B-4K",
torch_dtype=torch.float16
).to("cuda")
image = pipe(
prompt="A serene Japanese garden with cherry blossoms",
height=4096,
width=4096,
num_inference_steps=20
).images[0]

NVIDIA AI

GitHub: github.com/NVlabs/Sana Hugging Face: huggingface.co/nvidia

---
## 5. 12-Factor Agents: Production-Grade Development Guidelines
### 5.1 Project Overview
This project has earned **20,500+ Stars**, aiming to solve the pain points of deploying large language model applications, providing production-grade guidelines for building stable, secure, and maintainable AI Agent systems.
### 5.2 The 12 Factors Explained
```mermaid
graph TB
subgraph 12-Factor Agents
direction TB
F1["① Define Scope"] --> F2["② Version Control"]
F2 --> F3["③ Config Management"]
F3 --> F4["④ Dependency Decl"]
F4 --> F5["⑤ Tool Abstraction"]
F5 --> F6["⑥ Memory Management"]
F6 --> F7["⑦ Observability"]
F7 --> F8["⑧ Sandboxing"]
F8 --> F9["⑨ Fault Tolerance"]
F9 --> F10["⑩ Human-in-loop"]
F10 --> F11["⑪ Audit Trail"]
F11 --> F12["⑫ Accountability"]
end

5.3 Factor Deep Dive

Factor 1: Define Scope — Define the Agent’s capability boundary

[\text{Agent Capability Space} = {t | P(\text{success}|t, \theta) > \tau}]

Where (\tau) is the confidence threshold (typically 0.85).

Factor 6: Memory Management — Short-term and Long-term Memory

[\mathbf{m}t = f{\text{mem}}(\mathbf{m}_{t-1}, \mathbf{o}_t, \mathbf{a}_t)]

Memory Type Storage Retrieval Decay
Working Memory Current context Full Cleared at end of turn
Short-term Memory Session-level vector store Similarity search 24-hour decay
Long-term Memory Knowledge graph Graph traversal Persistent
Episodic Memory Experience replay buffer Pattern matching By importance

Factor 12: Accountability — Enforce model to bear final responsibility

graph TD
    T["Task Input"] --> D["Decision Node"]
    D --> C{"Confidence Assessment"}
    C -->|"$P > 0.9$"| E["Autonomous Execution"]
    C -->|"$0.7 < P \leq 0.9$"| H["Human Confirmation"]
    C -->|"$P \leq 0.7$"| R["Reject Execution
Explain Reason"] E --> A["Execution Result"] H --> A A --> L["Audit Log"] R --> L

5.4 Production-Grade Agent Architecture Example

# 12-Factor practical example
from agent12f import Agent, Tool, Memory, Sandbox
class ResearchAgent(Agent):
"""Research assistant Agent following the 12 factors"""
# ① Define Scope
scope = ["Literature Search", "Summary Generation", "Citation Management"]
# ③ Config Management
config = {
"model": "gpt-4",
"max_iterations": 10,
"confidence_threshold": 0.85
}
# ⑤ Tool Abstraction
tools = [
Tool("search", web_search),
Tool("read", document_parser),
Tool("cite", citation_formatter)
]
# ⑥ Memory Management
memory = Memory(
short_term=VectorStore(),
long_term=KnowledgeGraph(),
working=ContextWindow(max_tokens=8000)
)
# ⑧ Sandboxing
sandbox = Sandbox(
network="restricted",
filesystem="read-only",
timeout=30
)
async def execute(self, task: str) -> Result:
# ⑩ Human-in-loop
if not await self.confirm_task(task):
return Result.rejected("User cancelled")
# ⑨ Fault Tolerance
for attempt in range(3):
try:
result = await self._run(task)
# ⑪ Audit Trail
self.audit.log(task, result)
return result
except Exception as e:
self.memory.store_error(e)
continue
# ⑫ Accountability
return Result.failed("Agent takes responsibility: Task execution failed")
---
## 6. Tencent Hunyuan 3D: Single Image to 3D Space
### 6.1 Project Overview
Tencent has launched a new **Hunyuan 3D engine** that generates 3D spaces from a single input image. The project has earned **1,800+ Stars**, breaking through the **visual limitations** of traditional video.
### 6.2 Technical Principles
```mermaid
graph LR
subgraph Input
IMG["Single Image<br/>\(I \in \mathbb{R}^{H \times W \times 3}\)"]
end
subgraph Hunyuan 3D Pipeline
IMG --> E["Image Encoder<br/>ViT-L"]
E --> P1["Depth Estimation<br/>\(D = f_d(I)\)"]
E --> P2["Normal Estimation<br/>\(N = f_n(I)\)"]
E --> P3["Semantic Segmentation<br/>\(S = f_s(I)\)"]
P1 --> F3D["3D Feature Fusion"]
P2 --> F3D
P3 --> F3D
F3D --> G["3D Gaussian Splatting"]
G --> M["Mesh Extraction<br/>Marching Cubes"]
M --> T["Texture Mapping"]
T --> R["PBR Material<br/>Physically Based Rendering"]
end
R --> OUT["Interactive 3D Scene<br/>.glb / .usdz / .obj"]

6.3 3D Gaussian Splatting Math

The scene is represented by a set of 3D Gaussians:

[G(\mathbf{x}) = e^{-\frac{1}{2}(\mathbf{x} - \boldsymbol{\mu})^T \boldsymbol{\Sigma}^{-1} (\mathbf{x} - \boldsymbol{\mu})}]

Where each Gaussian is defined by:

  • (\boldsymbol{\mu} \in \mathbb{R}^3): Center position
  • (\boldsymbol{\Sigma} \in \mathbb{R}^{3 \times 3}): Covariance matrix (controls shape)
  • (\mathbf{c} \in \mathbb{R}^3): Color (spherical harmonic coefficients)
  • (\alpha \in \mathbb{R}): Opacity

Rendering Equation:

[C(\mathbf{p}) = \sum_{i=1}^{N} \mathbf{c}i \alpha_i G_i(\mathbf{p}) \prod{j=1}^{i-1} (1 - \alpha_j G_j(\mathbf{p}))]

6.4 Quality Evaluation

Metric Hunyuan 3D DreamGaussian LGM InstantMesh
PSNR ↑ 28.5 25.3 26.8 27.1
SSIM ↑ 0.92 0.87 0.89 0.90
LPIPS ↓ 0.08 0.14 0.11 0.10
Generation Time 3s 15s 10s 8s
Multi-view Consistency Excellent Good Good Good

6.5 Quick Start

Terminal window
# Clone repository
git clone https://github.com/Tencent/Hunyuan3D.git
cd Hunyuan3D
# Install dependencies
pip install -r requirements.txt
# Single image to 3D
python generate.py \
--image input.jpg \
--output output.glb \
--texture_resolution 2048 \
--mesh_format glb
# Python API
from hunyuan3d import Hunyuan3DPipeline
pipeline = Hunyuan3DPipeline.from_pretrained("tencent/Hunyuan3D-v1")
mesh = pipeline(
image="photo.jpg",
num_views=6,
texture_quality="high"
)
mesh.save("scene.glb")

3D Generation

GitHub: github.com/Tencent/Hunyuan3D Online Demo: 3d.hunyuan.tencent.com

---
## 7. Developer Toolchain & Best Practices
### 7.1 Complete Development Toolchain
```mermaid
graph LR
subgraph Development Environment
A["VS Code + AI Plugins"]
B["Cursor / Windsurf"]
C["Jupyter Notebook"]
end
subgraph Model Layer
D["llama.cpp<br/>Local Inference"]
E["Ollama<br/>Model Management"]
F["vLLM<br/>High-Throughput Serving"]
end
subgraph Application Layer
G["LangChain<br/>Application Framework"]
H["LlamaIndex<br/>RAG Framework"]
I["CrewAI<br/>Multi-Agent Collaboration"]
end
subgraph Deployment Layer
J["Docker<br/>Containerization"]
K["Kubernetes<br/>Orchestration"]
L["Edge Deployment"]
end
A --> D
B --> E
C --> F
D --> G
E --> H
F --> I
G --> J
H --> K
I --> L

7.2 Technology Selection Decision Matrix

[\text{Selection Score} = \sum_{i} w_i \cdot s_i, \quad \sum w_i = 1]

Scenario Recommended Solution Inference Backend Model Format Deployment
Personal Dev/Experiment llama.cpp + Ollama CPU/GPU GGUF Local
Small/Medium Team API vLLM + FastAPI GPU HuggingFace Docker
Enterprise High Concurrency TensorRT-LLM + Triton NVIDIA GPU ONNX/TensorRT K8s
Mobile llama.cpp (Mobile) NPU/GPU Q4 Quantization Embedded
Privacy-Sensitive Fully local llama.cpp CPU Q8 Quantization Offline

7.3 Performance Optimization Formulas

[\text{Throughput (tokens/s)} = \frac{\text{Batch Size} \times \text{Sequence Length}}{\text{Latency (s)}}]

Optimization Strategies:

  1. Quantization: FP16 → Q4 reduces VRAM usage by 75%
  2. Batching: Batch=8 typically achieves 3-4x throughput over Batch=1
  3. KV Cache: Reduces redundant computation by 30-50%
  4. Speculative Decoding: Can accelerate by 1.5-2.5x
# Performance optimization example
from llama_cpp import Llama
# Optimized config
llm = Llama(
model_path="model-Q4_K_M.gguf",
n_ctx=8192, # Context length
n_batch=512, # Batch size
n_threads=8, # CPU threads
n_gpu_layers=-1, # Offload all to GPU
use_mlock=True, # Lock memory
verbose=False
)
# Use speculative decoding
output = llm(
"Explain quantum computing",
max_tokens=512,
temperature=0.7,
# Speculative decoding parameters
draft_model="tiny-model.gguf",
num_assistant_tokens=10
)
---
## 8. Community Activity & Contribution Guide
### 8.1 Project Contribution Trends
```mermaid
xychart-beta
title "AI Open Source Monthly Contributor Growth"
x-axis ["Jan", "Feb", "Mar", "Apr", "May"]
y-axis "Active Contributors" 0 --> 500
line "llama.cpp" [280, 310, 350, 420, 450]
line "12-Factor Agents" [50, 80, 120, 180, 220]
line "Sana" [20, 40, 90, 150, 200]
line "Hunyuan3D" [10, 25, 60, 100, 140]

8.2 Contribution Guide

graph LR
    A["Fork Repository"] --> B["Create Branch
feature/your-feature"] B --> C["Write Code"] C --> D["Add Tests"] D --> E["Run Tests
make test"] E --> F{"Tests Pass?"} F -->|"No"| C F -->|"Yes"| G["Submit PR"] G --> H["Code Review"] H --> I{"Review Pass?"} I -->|"No"| C I -->|"Yes"| J["Merge to Main Branch"]

8.3 Community Resources

Resource Type Link Description
Discord Community discord.gg/llamacpp llama.cpp official discussion
Tech Blog huggingface.co/blog Latest tech articles
Video Tutorials YouTube AI Channel Beginner to advanced
Chinese Community Zhihu AI Column Chinese discussion forum
Paper Tracking arXiv cs.AI Latest research

8.4 Open Source License Quick Reference

graph TD
    Q["Your Use Case?"] --> C1["Commercial Use?"]
    C1 -->|"Yes"| C2["Closed-Source Distribution?"]
    C1 -->|"No"| C3["Personal/Research"]
    C2 -->|"Yes"| L1["Apache 2.0
MIT
BSD"] C2 -->|"No"| L2["GPL
AGPL"] C3 --> L3["Any License"] L1 --> R1["✅ Recommended"] L2 --> R2["⚠️ Watch for Copyleft"] L3 --> R3["✅ Free to Use"]

8.5 Future Roadmap

gantt
    title AI Open Source Projects 2026 Roadmap
    dateFormat 2026-06
    section llama.cpp
    v1.0 Stable Release        :llama1, 2026-06, 2M
    Multimodal Support          :llama2, 2026-08, 3M
    Quantization Optimization   :llama3, 2026-10, 2M
    section Sana
    v2.0 Video Generation      :sana1, 2026-07, 3M
    ControlNet Support          :sana2, 2026-09, 2M
    section Hunyuan 3D
    v2.0 Video-Driven           :h3d1, 2026-08, 3M
    Animation/Skeleton Support  :h3d2, 2026-11, 2M
    section 12-Factor Agents
    v2.0 Framework Implementation :ag1, 2026-06, 2M
    Multi-language SDK           :ag2, 2026-09, 3M
---
## Summary
The 2026 AI open source ecosystem presents **four major trends**:
1. **Edge Computing**: Projects like llama.cpp, elastic DiT, and on-device TTS are bringing AI truly local
2. **Production Readiness**: Projects like 12-Factor Agents mark the transition of AI Agents from toys to production environments
3. **Multi-modality**: From text to images, 3D, and audio — the open source ecosystem covers it all
4. **Rise of China**: Tencent Hunyuan 3D, Alibaba Qwen, and other Chinese open source projects are rapidly growing in influence
\[\text{Future of Open Source AI} = \text{Open Collaboration} \times \text{Technical Innovation} \times \text{Community Vitality}\]
---
## References
### Repositories
- [llama.cpp GitHub](https://github.com/ggerganov/llama.cpp) ⭐ 111K
- [12-Factor Agents GitHub](https://github.com/humanlayer/12-factor-agents) ⭐ 20.5K
- [On-Device TTS GitHub](https://github.com/edwko/Pinc) ⭐ 8.3K
- [NVIDIA Sana GitHub](https://github.com/NVlabs/Sana) ⭐ 6.5K
- [Tencent Hunyuan 3D GitHub](https://github.com/Tencent/Hunyuan3D) ⭐ 1.8K
### Video Tutorials
- [llama.cpp from Beginner to Pro](https://www.youtube.com/results?search_query=llama.cpp+tutorial)
- [Sana Image Generation in Practice](https://www.youtube.com/results?search_query=nvidia+sana+tutorial)
- [Hunyuan 3D Quick Start](https://www.youtube.com/results?search_query=tencent+hunyuan3d+tutorial)
- [AI Agent Production-Grade Development](https://www.youtube.com/results?search_query=12+factor+agents+tutorial)
### Community & Docs
- [Hugging Face Model Hub](https://huggingface.co/models)
- [Ollama Official Website](https://ollama.com/)
- [LangChain Documentation](https://python.langchain.com/)
- [vLLM Documentation](https://docs.vllm.ai/)
---
*This document was compiled by AI Daily News on 2026/5/19, dedicated to the thriving development of the AI open source ecosystem.*

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