Peer-Reviewed Research

Pioneering AML Drug Discovery Through AI Research

Our multidisciplinary research program combines computational biology, machine learning, and structural chemistry to accelerate the discovery of novel therapeutics for Acute Myeloid Leukemia.

50B+Genomic Data Points
Top 20Targets Identified
Top 10Ligands Generated
5-PhaseDiscovery Pipeline

Core Research Areas

Our research spans four interconnected disciplines — each reinforcing the others to create a truly integrated drug discovery pipeline.

Genomics

Transcriptomic Profiling of AML Subtypes

We apply advanced RNA-Seq analysis pipelines to identify differentially expressed genes and cryptic splicing events across AML patient cohorts, enabling the discovery of subtype-specific therapeutic vulnerabilities.

TCGA IntegrationHVG SelectionExon-Level Mapping
Artificial Intelligence

Generative Models for Molecular Design

Our generative AI engine leverages evolutionary algorithms and fragment-based assembly to design novel small molecules with optimized binding affinity, selectivity, and pharmacokinetic properties.

De Novo GenerationMulti-Objective OptimizationNovelty Scoring
Target Discovery

Network-Based Target Prioritization

Using co-expression network analysis and multi-omic repository cross-referencing, we identify and validate the most druggable protein targets driving leukemogenesis and treatment resistance.

Gene Module DetectionDruggability ScoringBiomarker Validation
Structural Biology

Protein Structure Prediction & Docking

We integrate AlphaFold predictions with high-resolution geometric docking to map binding pockets, identify allosteric sites, and evaluate ligand-protein interactions at atomic resolution.

AlphaFold IntegrationBinding Pocket AnalysisMolecular Docking

Research Highlights

Tackling the most challenging mutations in AML with AI-driven precision medicine.

Targeted Protein Degradation research

Targeted Protein Degradation

Developing PROTACs and molecular glues to eliminate oncogenic proteins previously considered ‘undruggable’ by standard inhibitors. Our AI models predict optimal linker geometries and E3 ligase recruiters.

Computational Chemistry
Splicing Modulators research

Splicing Modulators

Harnessing deep RNA-seq insights to identify and correct aberrant splicing patterns that drive leukemogenesis and drug resistance. Our pipeline detects novel splice junctions invisible to traditional tools.

Transcriptomics

Publications & Theses

Academic contributions from the AML2Ligand research program at Cairo University.

Thesis2026

Automated Target Identification via Differential Expression Analysis in AML

AML2Ligand Research TeamGraduation Project — Cairo University, FCAI

A comprehensive pipeline that processes RNA-Seq data from TCGA to identify the top 20 protein targets most relevant to Acute Myeloid Leukemia through automated differential expression and co-expression network analysis.

Thesis2026

De Novo Ligand Generation Using Evolutionary Fragment Assembly

AML2Ligand Research TeamGraduation Project — Cairo University, FCAI

A generative molecular design system that employs fragment-based assembly with evolutionary mutation algorithms to create novel chemical entities tailored to specific protein binding geometries.

Thesis2026

End-to-End Drug Discovery: From Transcriptomic Data to Validated Lead Compounds

AML2Ligand Research TeamGraduation Project — Cairo University, FCAI

An integrated platform combining multi-phase algorithmic processing — transcriptomic profiling, target prioritization, structural modeling, ligand generation, and physicochemical profiling — into a unified drug discovery workflow.

Our Methodology

A rigorous, multi-phase approach that bridges computational prediction and biological validation.

Phase 01

Data Ingestion

TCGA RNA-Seq normalization

Phase 02

Target Ranking

Network co-expression

Phase 03

Structure Mapping

AlphaFold integration

Phase 04

Ligand Design

Generative fragment assembly

Phase 05

Validation

Docking & ADMET profiling

Ready to transform AML drug discovery?

Join leading researchers and biotech innovators using Ligand AI to discover the next generation of precision therapeutics.