teachablemachine-community
Example code snippets and machine learning code for Teachable Machine
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Quick Overview
The googlecreativelab/teachablemachine-community
repository is a collection of community-contributed projects and examples for the Teachable Machine, a web-based tool that allows users to train machine learning models without writing any code. The repository serves as a hub for sharing and collaborating on various Teachable Machine-related projects.
Pros
- Diverse Project Examples: The repository contains a wide range of projects, from image classification to sound recognition, showcasing the versatility of the Teachable Machine tool.
- Community Collaboration: The project encourages community involvement, allowing users to contribute their own projects and learn from others' work.
- Easy Accessibility: The Teachable Machine tool is web-based, making it accessible to users without the need for complex setup or programming knowledge.
- Hands-on Learning: The repository provides opportunities for users to engage in practical, hands-on machine learning projects, fostering a better understanding of the technology.
Cons
- Limited Customization: While the Teachable Machine tool is easy to use, it may have limited customization options compared to more advanced machine learning frameworks.
- Dependency on Web-based Tool: The reliance on the web-based Teachable Machine tool means that users are dependent on the availability and functionality of the tool, which could be a potential limitation.
- Potential Scalability Issues: For larger or more complex machine learning projects, the Teachable Machine tool may not be the most suitable option, and users may need to transition to more powerful frameworks.
- Lack of Comprehensive Documentation: While the repository contains various project examples, the overall documentation and guidance for the Teachable Machine tool may be limited, making it challenging for newcomers to get started.
Code Examples
Since the googlecreativelab/teachablemachine-community
repository is not a code library, but rather a collection of community-contributed projects, there are no specific code examples to provide. The repository contains various project files and resources that users can explore and use as references for their own Teachable Machine projects.
Getting Started
To get started with the Teachable Machine and the googlecreativelab/teachablemachine-community
repository, follow these steps:
- Visit the Teachable Machine website and create a new project.
- Explore the different project examples in the
googlecreativelab/teachablemachine-community
repository to get inspiration and learn from the community's work. - Follow the instructions and documentation provided within each project folder to understand how to set up and run the specific project.
- Experiment with the Teachable Machine tool, train your own models, and consider contributing your own projects back to the community repository.
- Stay up to date with the latest developments and announcements by following the Teachable Machine and Google Creative Lab social media channels.
Remember, the Teachable Machine is designed to be an accessible and user-friendly tool, so the learning curve is relatively gentle, making it a great starting point for those interested in exploring machine learning without extensive programming knowledge.
Competitor Comparisons
Pretrained models for TensorFlow.js
Pros of tfjs-models
- Offers a wider range of pre-trained models for various tasks
- Provides more flexibility for advanced users and custom implementations
- Integrates seamlessly with the TensorFlow.js ecosystem
Cons of tfjs-models
- Steeper learning curve for beginners
- Requires more coding knowledge to implement and customize models
- Less user-friendly interface compared to Teachable Machine
Code Comparison
tfjs-models:
import * as mobilenet from '@tensorflow-models/mobilenet';
const model = await mobilenet.load();
const predictions = await model.classify(img);
console.log('Predictions:', predictions);
Teachable Machine:
const URL = 'https://teachablemachine.withgoogle.com/models/[MODEL_ID]/';
const model = await tmImage.load(URL + 'model.json', URL + 'metadata.json');
const prediction = await model.predict(webcamElement);
console.log('Prediction:', prediction);
Both repositories offer machine learning capabilities for web applications, but they cater to different user groups. Teachable Machine focuses on simplicity and ease of use, making it ideal for beginners and quick prototyping. On the other hand, tfjs-models provides more advanced features and flexibility, suitable for experienced developers who need fine-grained control over their models and implementations.
Friendly machine learning for the web! 🤖
Pros of ml5-library
- More comprehensive and versatile, offering a wide range of machine learning algorithms and models
- Designed for broader applications beyond just training models, including inference and deployment
- Provides a more flexible and customizable API for advanced users
Cons of ml5-library
- Steeper learning curve, especially for beginners in machine learning
- Requires more setup and configuration compared to the simpler interface of Teachable Machine
- May have higher computational requirements for some advanced features
Code Comparison
ml5-library:
// Load pre-trained model
const classifier = ml5.imageClassifier('MobileNet', modelLoaded);
function modelLoaded() {
console.log('Model Loaded!');
}
Teachable Machine:
// Load model from Teachable Machine export
const URL = 'https://teachablemachine.withgoogle.com/models/[MODEL_ID]/';
const model = await tmImage.load(URL + 'model.json', URL + 'metadata.json');
Both libraries aim to make machine learning accessible, but ml5-library offers more advanced features at the cost of complexity, while Teachable Machine focuses on simplicity and ease of use for quick model creation and deployment.
Detectron2 is a platform for object detection, segmentation and other visual recognition tasks.
Pros of Detectron2
- More advanced and comprehensive computer vision library
- Supports a wider range of object detection and segmentation tasks
- Offers higher performance and flexibility for research and production use
Cons of Detectron2
- Steeper learning curve and more complex to use
- Requires more computational resources and expertise
- Less suitable for beginners or quick prototyping
Code Comparison
Teachable Machine (JavaScript):
const model = await tmImage.load(modelURL, metadataURL);
const predictions = await model.predict(imageElement);
Detectron2 (Python):
cfg = get_cfg()
cfg.merge_from_file(model_zoo.get_config_file("COCO-InstanceSegmentation/mask_rcnn_R_50_FPN_3x.yaml"))
predictor = DefaultPredictor(cfg)
outputs = predictor(image)
Teachable Machine provides a simpler, more accessible interface for basic image classification tasks, while Detectron2 offers a more powerful and flexible framework for advanced computer vision applications. Teachable Machine is ideal for quick prototypes and educational purposes, whereas Detectron2 is better suited for research and production-level projects requiring state-of-the-art performance and customization.
A toolkit for developing and comparing reinforcement learning algorithms.
Pros of Gym
- More comprehensive and flexible for reinforcement learning tasks
- Supports a wider range of environments and algorithms
- Has a larger community and more extensive documentation
Cons of Gym
- Steeper learning curve for beginners
- Requires more setup and configuration
- Less focused on specific machine learning tasks like image classification
Code Comparison
Teachable Machine Community:
const model = await tmImage.load(modelURL, metadataURL);
const prediction = await model.predict(imageElement);
Gym:
import gym
env = gym.make('CartPole-v1')
observation, info = env.reset(seed=42)
for _ in range(1000):
action = env.action_space.sample()
observation, reward, terminated, truncated, info = env.step(action)
Summary
Teachable Machine Community is more user-friendly and focused on specific tasks like image classification, making it ideal for beginners and quick prototyping. Gym, on the other hand, offers a more comprehensive toolkit for reinforcement learning across various environments, catering to more advanced users and complex projects. The code examples highlight the simplicity of Teachable Machine Community for image prediction tasks, while Gym's code demonstrates its flexibility in creating and interacting with diverse environments.
An Open Source Machine Learning Framework for Everyone
Pros of TensorFlow
- Comprehensive and powerful machine learning framework
- Extensive ecosystem with tools, libraries, and community support
- Highly scalable for large-scale production deployments
Cons of TensorFlow
- Steeper learning curve for beginners
- More complex setup and configuration
- Requires more code for basic tasks
Code Comparison
Teachable Machine (JavaScript):
const model = await tmImage.load(modelURL, metadataURL);
const prediction = await model.predict(webcamElement);
TensorFlow (Python):
model = tf.keras.models.load_model('model.h5')
prediction = model.predict(input_data)
Key Differences
- Teachable Machine focuses on simplicity and accessibility for non-programmers
- TensorFlow offers more flexibility and control over model architecture
- Teachable Machine is web-based, while TensorFlow is primarily used in Python environments
- TensorFlow supports a wider range of machine learning tasks and model types
Tensors and Dynamic neural networks in Python with strong GPU acceleration
Pros of PyTorch
- More comprehensive and powerful deep learning framework
- Supports a wider range of machine learning tasks and models
- Offers greater flexibility and control over model architecture
Cons of PyTorch
- Steeper learning curve for beginners
- Requires more coding and technical knowledge
- Less user-friendly for quick prototyping and simple models
Code Comparison
Teachable Machine (JavaScript):
const model = await tmImage.load(modelURL, metadataURL);
const prediction = await model.predict(imageElement);
PyTorch (Python):
model = torch.load('model.pth')
input_tensor = transform(image).unsqueeze(0)
output = model(input_tensor)
Key Differences
Teachable Machine is designed for simplicity and ease of use, allowing users to create and train basic machine learning models without extensive coding. It's ideal for educational purposes and quick prototyping.
PyTorch, on the other hand, is a full-fledged deep learning framework that provides more advanced features and flexibility. It's better suited for professional machine learning projects and research, offering greater control over model architecture and optimization.
While Teachable Machine focuses on accessibility and visual interfaces, PyTorch requires more programming knowledge but offers a more powerful and versatile toolkit for developing complex machine learning models.
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Teachable Machine Community
What is Teachable Machine?
Teachable Machine is a web-based tool that makes creating machine learning models fast, easy, and accessible for everyone. You can try it here.
Who is it for?
Educators, artists, students, innovators, makers of all kinds â really, anyone who has an idea they want to explore. No prerequisite machine learning knowledge required.
How does it work?
You train a computer to recognize your images, sounds, and poses without writing any machine learning code. Then, use your model in your own projects, sites, apps, and more.
What is this repository for?
This repository contains two components of Teachable Machine:
-
A libraries section that contains all of the machine learning code used in Teachable Machine. Under the hood we use Tensorflow.js, a library for machine learning in Javascript, to train and run the models you make in your web browser. The
libraries
section also contains the API for image, audio, and pose helper libraries that make it easier to use the models exported by Teachable Machine in your own projects. -
A snippets section that contains markdown snippets that are being displayed inside the export panel in Teachable Machine. These snippets contain code and instructions on how to use the exported models from Teachable Machine in languages like Javascript, Java and Python.
How can I send feedback or get in contact with you?
You have a few options:
- Share your projects using #teachablemachine on Twitter or on the Experiments with Google page.
- Open an issue in this repository.
Community Contributions and Projects
- Teachable Machine Node Library for image models (Archived and now continued here)
- Teachable Machine Mobile for image models
Disclaimer
This is an experiment, not an official Google product. Weâll do our best to support and maintain this experiment but your mileage may vary.
We encourage open sourcing projects as a way of learning from each other. Please respect our and other creatorsâ rights, including copyright and trademark rights when present, when sharing these works and creating derivative work. If you want more info on Google's policy, you can find that here.
Top Related Projects
Pretrained models for TensorFlow.js
Friendly machine learning for the web! 🤖
Detectron2 is a platform for object detection, segmentation and other visual recognition tasks.
A toolkit for developing and comparing reinforcement learning algorithms.
An Open Source Machine Learning Framework for Everyone
Tensors and Dynamic neural networks in Python with strong GPU acceleration
Convert
designs to code with AI
Introducing Visual Copilot: A new AI model to turn Figma designs to high quality code using your components.
Try Visual Copilot