4
0
mirror of https://github.com/nerfstudio-project/nerfstudio.git synced 2026-11-10 18:17:31 +08:00
A collaboration friendly studio for NeRFs
Go to file
Matthew Tancik 2ca0695fef
Add colmap preprocessing script (#338)
* Add colmap preprocessing script

* Fix lint, add dataparser
2022-09-04 17:39:30 -07:00
.github/workflows torch==1.12 and requirements.txt update (#302) 2022-09-02 10:25:37 -07:00
.vscode Cleanup (#325) 2022-09-01 12:36:54 -07:00
docs torch==1.12 and requirements.txt update (#302) 2022-09-02 10:25:37 -07:00
nerfactory Add colmap preprocessing script (#338) 2022-09-04 17:39:30 -07:00
scripts Add colmap preprocessing script (#338) 2022-09-04 17:39:30 -07:00
tests refactored dataset names + multi-gpu running (#321) 2022-09-01 18:22:11 -07:00
.gitattributes Ignore ipynb in github line count 2022-06-28 17:09:55 -07:00
.gitignore Reorganizing docs for pipeline restructure (#279) 2022-08-16 12:10:24 -07:00
.prettierrc.js Viewer refactor with state sync (#212) 2022-08-02 16:02:07 -05:00
.readthedocs.yaml torch==1.12 and requirements.txt update (#302) 2022-09-02 10:25:37 -07:00
LICENSE
pyproject.toml torch==1.12 and requirements.txt update (#302) 2022-09-02 10:25:37 -07:00
README.md torch==1.12 and requirements.txt update (#302) 2022-09-02 10:25:37 -07:00

Test Status Viewer build Status Documentation Status Documentation Status PyPI version

nerfactory

The all-in-one repo for NeRFs

documentation viewer

Quickstart

The quickstart will help you get started with the default vanilla nerf trained on the classic blender lego scene. For more complex changes (e.g. running with your own data/ setting up a new NeRF graph, please see our docs.

1. Installation: Setup the environment

This repository is tested with CUDA 11.3. Make sure to install Conda before preceding.

Installing Conda
This step is fairly self-explanatory, but here are the basic steps. You can also find countless tutorials online.

```
cd /path/to/install/miniconda

mkdir -p miniconda3
wget https://repo.anaconda.com/miniconda/Miniconda3-latest-Linux-x86_64.sh -O miniconda3/miniconda.sh
bash miniconda3/miniconda.sh -b -u -p miniconda3
rm -rf miniconda/miniconda.sh
```
# Create the python environment
conda create --name nerfactory python=3.8.13
conda activate nerfactory

# Clone the repo
git clone git@github.com:plenoptix/nerfactory.git

# Install dependencies and nerfactory as a library
cd nerfactory
pip install -e .

# Install tiny-cuda-nn (tcnn) and apex to use with the graph_instant_ngp.yaml config
pip install git+https://github.com/NVlabs/tiny-cuda-nn/#subdirectory=bindings/torch

# Run the test cases
pytest tests

2. Getting the data

Download the original NeRF dataset and unfold it in the following format. This is for the blender dataset type. We support the major datasets and allow users to create their own dataset, described in detail here.

|─ nerfactory/
   ├─ data/
   |  ├─ blender/
   |     ├─ fern/
   |     ├─ lego/
         ...
      |- <dataset_format>/
         |- <scene>
         ...

3. Training a model

To run with all the defaults, e.g. vanilla nerf method with the blender lego image

# To see what models are available.
python scripts/run_train.py --help

# Run a vanilla nerf model.
python scripts/run_train.py vanilla_nerf

# Run a faster version with instant ngp using tcnn (without the viewer).
python scripts/run_train.py instant_ngp

3.x Training a model with the viewer

Make sure to forward a port for the websocket to localhost. The default port is 7007, which you should be expose to localhost:7007.

# with the default port
python scripts/run_train.py instant_ngp --viewer.enable

# with a specified websocket port
python scripts/run_train.py instant_ngp --viewer.enable --viewer.websocket-port=7008

# with the viewer bridge server as a separate process
# in one terminal, start the bridge server:
viewer-bridge-server # or equivalently, python scripts/run_viewer_bridge_server.py
# in another terminal, start training:
python scripts/run_train.py instant_ngp --viewer.enable --viewer.no-launch-bridge-server

4. Visualizing training runs

We support multiple methods to visualize training, the default configuration uses Tensorboard. More information on logging can be found here.

Real-time Viewer

We have developed our own Real-time web viewer, more information can be found here. This viewer runs during training and is designed to work with models that have fast rendering pipelines.

Tensorboard

If you run everything with the default configuration we log all training curves, test images, and other stats. Once the job is launched, you will be able to track training by launching the tensorboard in outputs/blender_lego/vanilla_nerf/<timestamp>/<events.tfevents>.

tensorboard --logdir outputs
Weights & Biases

We support logging to weights and biases, to enable add the following to the config:

logging:
    writer:
        WandbWriter

5. Rendering a trajectories during inference

python scripts/run_eval.py render-trajectory --load-config=outputs/blender_lego/instant_ngp/2022-07-07_230905/config.yml--traj=spiral --output-path=output.mp4

6. In-depth guide

For a more in-depth tutorial on how to modify/implement your own NeRF Graph, please see our walk-through.

Supported Features

We provide the following support strucutures to make life easier for getting started with NeRFs. For a full description, please refer to our features page.

If you are looking for a feature that is not currently supported, please do not hesitate to contact the Plenoptix team!

🤘 Support for multiple logging interfaces

🤘 Built-in support for profiling code

🤘 Benchmarking scripts

🤘 Speed up your code with Tiny Cuda NN