Generate high resolution, intensely stimulating images with random neural networks.
python generate.py takes as arguments:
--im-size: Size of the image.--batch-size: Number of images to generate.--units: Number of units per layer.--z-dim: Size of input latent vector.--layers: Number of layers in the network.--channels: Number of channels in output images.--scale: Scaling factor for the images.--name: Name of image for saving. Default is None, specify for saving.--frames: Number of frames for the gif. Default is None, specify an integer to save a gif file.--scale-list: Comma-separated list of scales for the images.--display-cols: Number of columns for showing image batches.--same-z: Use the same latent vector for all param lists.
Generating Images: python generate.py
Generating Gifs: python generate.py --frames=10 --name="tanhtanh.gif"
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The
--scaleparameter acts as a "zooming" parameter in the image space. -
The
--z-dimparameter acts a control parameter on the frequency of generated features. -
Both
--unitsand--layerscontrol the noise level in the generated images, which makes sense since these parameters adjust the number of weights which dictate the 'representational power' of the neural network. Try setting--layersor--unitsto 0 and then 64 for yourself. -
There are a lot of experiments that can be performed. In this case, hyperparameter tuning can be fun!
The effect of exponentially increasing the scale parameter (all other params default): --scale-list=1,5,25,125
The effect of exponentially increasing the z dimension (all other params default): --z-dim from {1,8,64,512}
This project was adapted from David Ha's amazing blog post













