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1. Ultrasound Powered Diagnosis
Breast cancer mortality rates are 7% in the US, compared to 27% in India and 60% in Africa. This disconnect boils down to the time of diagnosis.

Underserved communities lack access to high-cost, advanced diagnostic technologies (MRIs/Mammograms) and cancer specialists. Patients must depend on the limited expertise of general physicians and low-cost, low-resolution modalities (Ultrasounds), delaying diagnosis and subsequent intervention.

WHAI endeavors to reduce global breast cancer mortality in underserved communities by enabling accurate, early, low-cost diagnosis & classification using the existing ultrasound infrastructure. We have developed a generative AI pipeline and hybrid deep learning architecture and made them accessible through an iOS app which is currently in external TestFlight mode on the App Store. It currently has 95% accuracy based on test data.
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A clinical study is being conducted in the NCR region of India to validate this model and expose it to representative data. 
2. Identifying Tumor Suppressor Drugs
Bringing a new drug to market costs between $350 million to $4.4 billion and takes nearly 10 years. Pre-discovery and research alone require 5-6 years of manually testing millions of compounds and evaluating metabolization. This brute-force approach contributes to the escalating costs of clinical trials and the steep market prices of life-saving therapies.

WHAI's research aims to automate the research phase by targeting the top of the funnel—we propose a deep learning-powered pipeline that can process millions of initial compounds to identify the most promising candidates. The pipeline was piloted on Glutaminase-1 (GLS-1), an enzyme implicated in the progression of aggressive cancers, including glioblastoma, hepatocarcinoma, pancreatic cancer, bone cancer, and triple-negative breast cancer.
 
Using a hybrid deep learning approach with two advanced transformer-based chemical models (PubChem10, ChemBERTa), we distilled 10 million chEMBL compounds down to 100 potential inhibitors with strong predictive accuracy (RMSE: 0.601, R²: 0.786). Top candidates were evaluated using AutoDockVina to analyze their binding affinities toward the target and a comprehensive literature review validated the final selection of five viable molecular compounds.

This pipeline can reduce the time and costs of early drug discovery by providing a scalable infrastructure to target any enzyme. The lead compounds identified are strong candidates for experimental validation, and this research will be a step toward developing a GLS-1 inhibitor to halt tumor progression and prevent cancer from reaching advanced stages.
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