There are 1 repository under prostate-cancer topic.
Awesome artificial intelligence in cancer diagnostics and oncology
prostatecancer.ai is an AI-based, zero-footprint medical image viewer that can identify clinically significant prostate cancer.
Hierarchical probabilistic 3D U-Net, with attention mechanisms (βππ΅π΅π¦π―π΅πͺπ°π― π-ππ¦π΅, ππππ¦π΄ππ¦π΅) and a nested decoder structure with deep supervision (βπππ¦π΅++). Built in TensorFlow 2.5. Configured for voxel-level clinically significant prostate cancer detection in multi-channel 3D bpMRI scans.
An interactive graphical illustration of genetic associations and their biological context
Domain Generalization for Prostate Segmentation in Transrectal Ultrasound Images: A Multi-center Study
Train and Predict Cancer Subtype with Keras Model based on Mutational Signatures
Here I tried various Machine Learning algorithms on different cancer's dataset present in CSV format.
π§ A deep learning algorithm based on convolutional neural networks to detect glandular cells in digitalized biopsies of the prostate. Performed as bachelor thesis for the degree in computer engineering.
[MICCAI'24] Incorporating Clinical Guidelines through Adapting Multi-modal Large Language Model for Prostate Cancer PI-RADS Scoring
Fully supervised, healthy/malignant prostate detection in multi-parametric MRI (T2W, DWI, ADC), using a modified 2D RetinaNet model for medical object detection, built upon a shallow SEResNet backbone.
Prostate lesion classification using Deep Convolutional Neural Networks
A wrapper containing search algorithm of Forward Selection + Pattern Classifier of KNN to use optimal features in prostate cancer
Keras/Tensorflow implementation of 3D pix2pix for automating seed planning for prostate brachytherapy
Keras/Tensorflow implementation for co-generation and segmentation of surgical instruments using unlabelled robot-assisted surgery data.
Soft Computing Project by Shoffiyah (140810160057) and Patricia (140810160065).
His study addresses these concerns by predicting prostate cancer using six (6) machine learningtechniques: Random Forest, SVM, KNN, Logistic Regression, Neutral Network, and the Ensemble model. We gathered data from 100 patients who were placed in ten different circumstances. The data was categorised as malignant or non-cancerous. Among the six machine learning techniques, logistic regression, neuralnetworks, and ensemble learning have the potential to reach an accuracy of 95.00 percent. Ensemble learning can detect 96.55%of true positive prostate cancer in our model. KNN has a 90%accuracy rate, whereas SVM and Random Forest have an 85%accuracy rate.
Automated reference tissue normalization of T2-weighted MR images of the prostate using object recognition
Keras/Tensorflow implementation of TP-GAN (end-to-end automatic approach for treatment planning in low-dose-rate prostate brachytherapy)
Public release of ProstAttention-Net: A deep attention model for prostate cancer segmentation by aggressiveness in MRI scans
ProLesA-Net: a Deep learning model For Prostate Lesion Segmentation from bi-parametric MR-Images
This repository is dedicated to raising awareness about prostate cancer through the prediction of prostate cancer and the explanation of the model's prediction using OmniXAI Explainers.
PAM50 classifier for Prostate Cancer in Python
Framework for detecting needle deflection and registering TTMB biopsy cores
Using diffusion basis spectrum imaging (DBSI) and multi layer perceptron (MLP) for prostate cancer (PCa) prediction.
Pytorch implementation of carcino-net
Using biological constraints to improve the performance of transcriptomic gene signatures
Distinct mesenchymal cell states mediate prostate cancer progression
The Reproducibility of Deep Learning-Based Segmentation of the Prostate Gland and Zones on T2-Weighted MR Images
Fitting of three diffusion models to data acquired using combined T2-DWI.
Research on a unified shape-based framework for faster extraction of prostates from MR imagery
prostateredcap: R package and workflow for a reproducible clinical-genomic database of prostate cancer
Exploratory project to study some instances of application of Deep Learning in biostatistics