daripp

3d_data_extractor_and_stack_viewer

Stack your 2d x-ray ct data, create new 3d tiff file, extract 3d data, and view 3d data with this code.

deeplab_4rgb

deeplabv3_xct

DeformableCNN-PlantTraits

A deformable CNN model that accepts multiple sensor inputs and predicts multiple continuous plant trait outputs. SOTA on the 2021 Autonomous Greenhouse Challenge dataset.

grape-seed-morphology

hello-world

image_stacker_and_reslicer

Code to stack a series of 2d images into a 3d object based on image number and then reslice the 3d stack into a sequence of 2d images from any direction.

leaf-area-counter

This code is designed to count and quantify leaves in an image. The best way to do this is to lay the leaves flat on a piece of paper with a blue disk of known size in the upper left hand quarter. Do not allow any of the leaves to extend above or to the left of the disk so that it is always counted as 1. This code uses red, green, and blue channels to identify and quantify the area of leaves. These channels can be separated or stacked.

unsupervised_x-rayct_image_cropping_tool

cropping almond bud images

XCT_FCN

A modular workflow for applying convolutional neural networks to X-ray µCT images, using low-cost resources in Google’s Colaboratory web application

daripp/XCT_FCN

A modular workflow for applying convolutional neural networks to X-ray µCT images, using low-cost resources in Google’s Colaboratory web application

daripp/DeformableCNN-PlantTraits

A deformable CNN model that accepts multiple sensor inputs and predicts multiple continuous plant trait outputs. SOTA on the 2021 Autonomous Greenhouse Challenge dataset.

daripp/leaf-area-counter

This code is designed to count and quantify leaves in an image. The best way to do this is to lay the leaves flat on a piece of paper with a blue disk of known size in the upper left hand quarter. Do not allow any of the leaves to extend above or to the left of the disk so that it is always counted as 1. This code uses red, green, and blue channels to identify and quantify the area of leaves. These channels can be separated or stacked.

daripp/unsupervised_x-rayct_image_cropping_tool

cropping almond bud images

daripp/3d_data_extractor_and_stack_viewer

Stack your 2d x-ray ct data, create new 3d tiff file, extract 3d data, and view 3d data with this code.

daripp/deeplab_4rgb

daripp/deeplabv3_xct

daripp/grape-seed-morphology

daripp/hello-world

daripp/image_stacker_and_reslicer

Code to stack a series of 2d images into a 3d object based on image number and then reslice the 3d stack into a sequence of 2d images from any direction.

daripp/jetson-inference

Hello AI World guide to deploying deep-learning inference networks and deep vision primitives with TensorRT and NVIDIA Jetson.

daripp/Nyumba

daripp/pore_spy_workflow

daripp/root_area_counter

This code is designed to count and quantify roots in an image. The best way to do this is to lay the roots flat on a piece of paper with a blue disk of known size in the upper left hand quarter. Do not allow any of the roots to extend above or to the left of the disk so that it is always counted as 1. This code uses red, green, and blue channels to identify and quantify the area of roots. These channels can be separated or stacked.

daripp/test-1

daripp/vision

Datasets, Transforms and Models specific to Computer Vision

daripp/Visualizing_3d_structures

Visualizing labels in 3d