Nest - A flexible tool for building and sharing deep learning modules

Overview

Nest - A flexible tool for building and sharing deep learning modules

Nest is a flexible deep learning module manager, which aims at encouraging code reuse and sharing. It ships with a bunch of useful features, such as CLI based module management, runtime checking, and experimental task runner, etc. You can integrate Nest with PyTorch, Tensorflow, MXNet, or any deep learning framework you like that provides a python interface.

Moreover, a set of Pytorch-backend Nest modules, e.g., network trainer, data loader, optimizer, dataset, visdom logging, are already provided. More modules and framework support will be added later.


Prerequisites

  • System (tested on Ubuntu 14.04LTS, Win10, and MacOS High Sierra)
  • Python >= 3.5.4
  • Git

Installation

# directly install via pip
pip install git+https://github.com/ZhouYanzhao/Nest.git

# manually download and install
git clone https://github.com/ZhouYanzhao/Nest.git
pip install ./Nest

Basic Usage

The official website and documentation are under construction.

Create your first Nest module

  1. Create "hello.py" under your current path with the following content:

    from nest import register
    
    @register(author='Yanzhao', version='1.0.0')
    def hello_nest(name: str) -> str:
        """My first Nest module!"""
    
        return 'Hello ' + name

    Note that the type of module parameters and return values must be clearly defined. This helps the user to better understand the module, and at runtime Nest automatically checks whether each module receives and outputs as expected, thus helping you to identify potential bugs earlier.

  2. Execute the following command in your shell to verify the module:

    str # Documentation: # My first Nest module! # author: Yanzhao # module_path: /Users/yanzhao/Workspace/Nest.doc # version: 1.0.0 ">
    $ nest module list -v
    # Output:
    # 
    # 1 Nest module found.
    # [0] main.hello_nest (1.0.0) by "Yanzhao":
    #     hello_nest(
    #         name:str) -> str
    
    # Documentation:
    #     My first Nest module!
    #     author: Yanzhao
    #     module_path: /Users/yanzhao/Workspace/Nest.doc
    #     version: 1.0.0 

    Note that all modules under current path are registered under the "main" namespace.

    With the CLI tool, you can easily manage Nest modules. Execute nest -h for more details.

  3. That's it. You just created a simple Nest module!

Use your Nest module in Python

  1. Open an interactive python interpreter under the same path of "hello.py" and run following commands:

    >> modules.hello_nest('Yanzhao', wrong=True) # Output: # # Unexpected param(s) "wrong" for Nest module: # hello_nest( # name:str) -> str ">
    >>> from nest import modules
    >>> print(modules.hello_nest) # access the module
    # Output:
    # 
    # hello_nest(
    # name:str) -> str
    >>> print(modules['*_nes?']) # wildcard search
    # Output:
    # 
    # hello_nest(
    # name:str) -> str
    >>> print(modules['r/main.\w+_nest']) # regex search
    # Output:
    # 
    # hello_nest(
    # name:str) -> str
    >>> modules.hello_nest('Yanzhao') # use the module
    # Output:
    #
    # 'Hello Yanzhao'
    >>> modules.hello_nest(123) # runtime type checking
    # Output:
    #
    # TypeError: The param "name" of Nest module "hello_nest" should be type of "str". Got "123".
    >>> modules.hello_nest('Yanzhao', wrong=True)
    # Output:
    #
    # Unexpected param(s) "wrong" for Nest module:
    # hello_nest(
    # name:str) -> str

    Note that Nest automatically imports modules and checks them as they are used to make sure everything is as expected.

  2. You can also directly import modules like this:

    >>> from nest.main.hello import hello_nest
    >>> hello_nest('World')
    # Output:
    #
    # 'Hello World'

    The import syntax is from nest. . import

  3. Access to Nest modules through code is flexible and easy.

Debug your Nest modules

  1. Open an interactive python interpreter under the same path of "hello.py" and run following commands:

    >>> from nest import modules
    >>> modules.hello_nest('Yanzhao')
    # Output:
    #
    # 'Hello Yanzhao'
  2. Keep the interpreter OPEN and use an externel editor to modify the "hello.py":

    # change Line7 from "return 'Hello ' + name" to
    return 'Nice to meet you, ' + name
  3. Back to the interpreter and rerun the same command:

    >>> modules.hello_nest('Yanzhao')
    # Output:
    #
    # 'Nice to meet you, Yanzhao'

    Note that Nest detects source file modifications and automatically reloads the module.

  4. You can use this feature to develop and debug your Nest modules efficiently.

Install Nest modules from local path

  1. Create a folder my_namespace and move the hello.py into it:

    $ mkdir my_namespace
    $ mv hello.py ./my_namespace/
  2. Create a new file more.py under the folder my_namespace with the following content:

    float: """Multiply two numbers.""" return a * b ">
    from nest import register
    
    @register(author='Yanzhao', version='1.0.0')
    def sum(a: int, b: int) -> int:
        """Sum two numbers."""
    
        return a + b
    
    # There is no need to repeatedly declare meta information
    # as modules within the same file automatically reuse the 
    # previous information. But overriding is also supported.
    @register(version='2.0.0')
    def mul(a: float, b: float) -> float:
        """Multiply two numbers."""
        
        return a * b

    Now we have:

    current path/
    ├── my_namespace/
    │   ├── hello.py
    │   ├── more.py
    
  3. Run the following command in the shell:

    Search paths. Continue? (Y/n) [Press ] ">
    $ nest module install ./my_namespace hello_word
    # Output:
    #
    # Install "./my_namespace/" -> Search paths. Continue? (Y/n) [Press 
          
           ]
          

    This command will add "my_namespace" folder to Nest's search path, and register all Nest modules in it under the namespace "hello_word". If the last argument is omitted, the directory name, "my_namespace" in this case, is used as the namespace.

  4. Verify the installation via CLI:

    $ nest module list
    # Output:
    #
    # 3 Nest modules found.
    # [0] hello_world.hello_nest (1.0.0)
    # [1] hello_world.mul (2.0.0)
    # [2] hello_world.sum (1.0.0)

    Note that those Nest modules can now be accessed regardless of your working path.

  5. Verify the installation via Python interpreter:

    $ ipython # open IPython interpreter
    >>> from nest import modules
    >>> print(len(modules))
    # Output:
    #
    # 3
    >>> modules.[Press <Tab>] # IPython Auto-completion
    # Output:
    #
    # hello_nest
    # mul
    # sum
    >>> modules.sum(3, 2)
    # Output:
    #
    # 5
    >>> modules.mul(2.5, 4.0)
    # Output:
    #
    # 10.0
  6. Thanks to the auto-import feature of Nest, you can easily share modules between different local projects.

Install Nest modules from URL

  1. You can use the CLI tool to install modules from URL:

    # select one of the following commands to execute
    # 0. install from Github repo via short URL (GitLab, Bitbucket are also supported)
    $ nest module install [email protected]/Nest:pytorch pytorch
    # 1. install from Git repo
    $ nest module install "-b pytorch https://github.com/ZhouYanzhao/Nest.git" pytorch
    # 2. install from zip file URL
    $ nest module install "https://github.com/ZhouYanzhao/Nest/archive/pytorch.zip" pytorch

    The last optional argument is used to specify the namespace, "pytorch" in this case.

  2. Verify the installation:

    $ nest module list
    # Output:
    #
    # 26 Nest modules found.
    # [0] hello_world.hello_nest (1.0.0)
    # [1] hello_world.mul (2.0.0)
    # [2] hello_world.sum (1.0.0)
    # [3] pytorch.adadelta_optimizer (0.1.0)
    # [4] pytorch.checkpoint (0.1.0)
    # [5] pytorch.cross_entropy_loss (0.1.0)
    # [6] pytorch.fetch_data (0.1.0)
    # [7] pytorch.finetune (0.1.0)
    # [8] pytorch.image_transform (0.1.0)
    # ...

Uninstall Nest modules

  1. You can remove modules from Nest's search path by executing:

    # given namespace
    $ nest module remove hello_world
    # given path to the namespace
    $ nest module remove ./my_namespace/
  2. You can also delete the corresponding files by appending a --delete or -d flag:

    $ nest module remove hello_world --delete

Version control Nest modules

  1. When installing modules, Nest adds the namespace to its search path without modifying or moving the original files. So you can use any version control system you like, e.g., Git, to manage modules. For example:

    $ cd <path of the namespace>
    # update modules
    $ git pull
    # specify version
    $ git checkout v1.0
  2. When developing a Nest module, it is recommended to define meta information for the module, such as the author, version, requirements, etc. Those information will be used by Nest's CLI tool. There are two ways to set meta information:

    • define meta information in code
    from nest import register
    
    @register(author='Yanzhao', version='1.0')
    def my_module() -> None:
        """My Module"""
        pass
    • define meta information in a nest.yml under the path of namespace
    author: Yanzhao
    version: 1.0
    requirements:
        - {url: opencv, tool: conda}
        # default tool is pip
        - torch>=0.4

    Note that you can use both ways at the same time.

Use Nest to manage your experiments

  1. Make sure you have Pytorch-backend modules installed, and if not, execute the following command:

    $ nest module install [email protected]/Nest:pytorch pytorch
  2. Create "train_mnist.yml" with the following content:

    _name: network_trainer
    data_loaders:
      _name: fetch_data
      dataset: 
        _name: mnist
        data_dir: ./data
      batch_size: 128
      num_workers: 4
      transform:
        _name: image_transform
        image_size: 28
        mean: [0.1307]
        std: [0.3081]
      train_splits: [train]
      test_splits: [test]
    model:
      _name: lenet5
    criterion:
      _name: cross_entropy_loss
    optimizer:
      _name: adadelta_optimizer
    meters:
      top1:
        _name: topk_meter
        k: 1
    max_epoch: 10
    device: cpu
    hooks:
      on_end_epoch: 
        - 
          _name: print_state
          formats:
            - 'epoch: {epoch_idx}'
            - 'train_acc: {metrics[train_top1]:.1f}%'
            - 'test_acc: {metrics[test_top1]:.1f}%'   

    Check HERE for more comprehensive demos.

  3. Run your experiments through CLI:

    $ nest task run ./train_mnist.yml
  4. You can also use Nest's task runner in your code:

    >>> from nest import run_tasks
    >>> run_tasks('./train_mnist.yml')
  5. Based on the task runner feature, Nest modules can be flexibly replaced and assembled to create your desired experiment settings.

Contact

Yanzhao Zhou

Issues

Feel free to submit bug reports and feature requests.

Contribution

Pull requests are welcome.

License

MIT

Copyright © 2018-present, Yanzhao Zhou

Owner
ZhouYanzhao
ZhouYanzhao
adversarial_multi_armed_bandit_variable_plays

Adversarial Multi-Armed Bandit with Variable Plays This code is for paper: Adversarial Online Learning with Variable Plays in the Evasion-and-Pursuit

Yiyang Wang 1 Oct 28, 2021
Detector for Log4Shell exploitation attempts

log4shell-detector Detector for Log4Shell exploitation attempts Idea The problem with the log4j CVE-2021-44228 exploitation is that the string can be

Florian Roth 729 Dec 25, 2022
Equivariant Imaging: Learning Beyond the Range Space

[Project] Equivariant Imaging: Learning Beyond the Range Space Project about the

Georges Le Bellier 3 Feb 06, 2022
classify fashion-mnist dataset with pytorch

Fashion-Mnist Classifier with PyTorch Inference 1- clone this repository: git clone https://github.com/Jhamed7/Fashion-Mnist-Classifier.git 2- Instal

1 Jan 14, 2022
Pytorch implementation of the popular Improv RNN model originally proposed by the Magenta team.

Pytorch Implementation of Improv RNN Overview This code is a pytorch implementation of the popular Improv RNN model originally implemented by the Mage

Sebastian Murgul 3 Nov 11, 2022
CoTr: Efficiently Bridging CNN and Transformer for 3D Medical Image Segmentation

CoTr: Efficient 3D Medical Image Segmentation by bridging CNN and Transformer This is the official pytorch implementation of the CoTr: Paper: CoTr: Ef

218 Dec 25, 2022
The FIRST GANs-based omics-to-omics translation framework

OmiTrans Please also have a look at our multi-omics multi-task DL freamwork 👀 : OmiEmbed The FIRST GANs-based omics-to-omics translation framework Xi

Xiaoyu Zhang 6 Dec 14, 2022
[WACV21] Code for our paper: Samuel, Atzmon and Chechik, "From Generalized zero-shot learning to long-tail with class descriptors"

DRAGON: From Generalized zero-shot learning to long-tail with class descriptors Paper Project Website Video Overview DRAGON learns to correct the bias

Dvir Samuel 25 Dec 06, 2022
Code to use Augmented Shapiro Wilks Stopping, as well as code for the paper "Statistically Signifigant Stopping of Neural Network Training"

This codebase is being actively maintained, please create and issue if you have issues using it Basics All data files are included under losses and ea

J K Terry 32 Nov 09, 2021
[ICLR 2021 Spotlight Oral] "Undistillable: Making A Nasty Teacher That CANNOT teach students", Haoyu Ma, Tianlong Chen, Ting-Kuei Hu, Chenyu You, Xiaohui Xie, Zhangyang Wang

Undistillable: Making A Nasty Teacher That CANNOT teach students "Undistillable: Making A Nasty Teacher That CANNOT teach students" Haoyu Ma, Tianlong

VITA 71 Dec 28, 2022
Deep Inside Convolutional Networks - This is a caffe implementation to visualize the learnt model

Deep Inside Convolutional Networks This is a caffe implementation to visualize the learnt model. Part of a class project at Georgia Tech Problem State

Jigar 61 Apr 15, 2022
This example implements the end-to-end MLOps process using Vertex AI platform and Smart Analytics technology capabilities

MLOps with Vertex AI This example implements the end-to-end MLOps process using Vertex AI platform and Smart Analytics technology capabilities. The ex

Google Cloud Platform 238 Dec 21, 2022
Neural Style and MSG-Net

PyTorch-Style-Transfer This repo provides PyTorch Implementation of MSG-Net (ours) and Neural Style (Gatys et al. CVPR 2016), which has been included

Hang Zhang 904 Dec 21, 2022
TC-GNN with Pytorch integration

TC-GNN (Running Sparse GNN on Dense Tensor Core on Ampere GPU) Cite this project and paper. @inproceedings{TC-GNN, title={TC-GNN: Accelerating Spars

YUKE WANG 19 Dec 01, 2022
Orthogonal Jacobian Regularization for Unsupervised Disentanglement in Image Generation (ICCV 2021)

Orthogonal Jacobian Regularization for Unsupervised Disentanglement in Image Generation Home | PyTorch BigGAN Discovery | TensorFlow ProGAN Regulariza

Yuxiang Wei 54 Dec 30, 2022
Deep learning operations reinvented (for pytorch, tensorflow, jax and others)

This video in better quality. einops Flexible and powerful tensor operations for readable and reliable code. Supports numpy, pytorch, tensorflow, and

Alex Rogozhnikov 6.2k Jan 01, 2023
3rd Place Solution for ICCV 2021 Workshop SSLAD Track 3A - Continual Learning Classification Challenge

Online Continual Learning via Multiple Deep Metric Learning and Uncertainty-guided Episodic Memory Replay 3rd Place Solution for ICCV 2021 Workshop SS

Rifki Kurniawan 6 Nov 10, 2022
UI2I via StyleGAN2 - Unsupervised image-to-image translation method via pre-trained StyleGAN2 network

We proposed an unsupervised image-to-image translation method via pre-trained StyleGAN2 network. paper: Unsupervised Image-to-Image Translation via Pr

208 Dec 30, 2022
Music Source Separation; Train & Eval & Inference piplines and pretrained models we used for 2021 ISMIR MDX Challenge.

Music Source Separation with Channel-wise Subband Phase Aware ResUnet (CWS-PResUNet) Introduction This repo contains the pretrained Music Source Separ

Lau 100 Dec 25, 2022
Fuzzing the Kernel Using Unicornafl and AFL++

Unicorefuzz Fuzzing the Kernel using UnicornAFL and AFL++. For details, skim through the WOOT paper or watch this talk at CCCamp19. Is it any good? ye

Security in Telecommunications 283 Dec 26, 2022