Develop an application that can reliably locate and identify surgical instruments in an image.
a. Create labelled data (n = 500 - 1000)
i. Generate pseudolabels using a pretrained model (VFnet, RetinaNet in Airctic/IceVision) (n=100)
ii. Refine annotation using annotation tool in Roboflow
iii. Iteratively generate pseudolabels by passing through fine-tuned models (n= 100 per iteration)
b. At labelled data n = 500 - 1000, create pseudolabels by running unlabelled images (n= 4000) through:
i. VFnet with pretrained weights
ii. VFnet with random initialized weights
i. Merge the labelled data (from 1.a.) with the pseudolabels (from 1.b)
ii. Run through a VFnet configuration with randomly initialized weights
A collection of images, annotations and notebooks for project development of a surgical instrument detection tool
Focus: Using images manually gathered from the net, annotated in roboflow, exported tensorflow OD csv format via curl; parsing done; n_original =10, n_filename = 21, n_class = 13
Datasets For Pseudolabelling
Contains: Downloaded images, comprising of 15 classes, at 5-7 representatives per class, N=100; for inference and pseudolabel generation, refining of annotation.
Scalpel
Mayo_metz
Iris
Potts
Forceps
Hemostat
Bulldog
Towel_clip
Castroviejo
Weitlaner
Richardson
Army_navy
Frazier
Yankauer
Needle
Refined annotations downloaded in COCO JSON form and RetinaNet CSV form.
Mixed surgical instruments, N=100, n_classes = 15, n_supercategories = 8.
--> Merge Surg100 and Surg200, fine tune Vfnet
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initial label assist not good, but as progress through the process, suggestions become better
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train/ val/ test split representatives are preserved when projects are merged