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AI Molecular Docking Drug Repurposing

Ai Drug Repurposing
AI Molecular Docking Drug Repurposing
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AI Molecular Docking Drug Repurposing

Research intern will develop AI models to predict binding affinities between existing drugs and novel protein targets using computational docking simulations.

The focused areas below are internship topics in varied working formats. Pick one, then choose your internship type, mode… Read more

🎓 TYPE
🌐 MODE
📚 Academic: Thesis & PPT assistance included🧪 Tech: Master the protocols hands-on📝 Research > 3 months: Publication co-authorship in a Scopus-indexed journal
🔍

Showing 110 of 10

Machine Learning Binding Affinity Prediction for Drug Molecules
This research investigates deep learning models that predict protein-ligand binding affinities without expensive experimental validation. The work generates computational frameworks that accelerate identification of repurposable drugs by ranking binding predictions across disease-relevant protein targets.
Academic (A)Tech (T)Research (R)
1 Month
A · £268
T · £784
R · £1,140
3 Months
A · £1,031
T · £1,260
R · £1,832
6 Months
A · £2,290
T · £2,799
R · £4,071
14 more durationsView Titles →
Graph Neural Networks for Three-Dimensional Molecular Structure Analysis
This research explores GNN architectures that encode molecular geometry and atomic interactions as graph representations for docking simulations. The work produces novel structural encoding methods that improve prediction accuracy for off-target drug binding events.
Academic (A)Tech (T)Research (R)
1 Month
A · £268
T · £830
R · £1,207
3 Months
A · £1,092
T · £1,334
R · £1,940
6 Months
A · £2,425
T · £2,964
R · £4,311
14 more durationsView Titles →
Quantum Computing Applications in Molecular Docking Optimization
This research examines quantum algorithms that solve complex docking energy minimization problems faster than classical approaches. The work demonstrates hybrid quantum-classical frameworks that identify novel binding poses for existing pharmaceutical compounds.
Academic (A)Tech (T)Research (R)
1 Month
A · £268
T · £830
R · £1,207
3 Months
A · £1,092
T · £1,334
R · £1,940
6 Months
A · £2,425
T · £2,964
R · £4,311
14 more durationsView Titles →
Explainable AI for Drug-Target Interaction Mechanism Discovery
This research develops interpretable machine learning models that reveal which molecular features drive successful drug-target binding. The work generates mechanistic insights that validate biological plausibility of computationally predicted repurposing candidates.
Academic (A)Tech (T)Research (R)
1 Month
A · £268
T · £784
R · £1,140
3 Months
A · £1,031
T · £1,260
R · £1,832
6 Months
A · £2,290
T · £2,799
R · £4,071
14 more durationsView Titles →
Transfer Learning Across Protein Family Docking Landscapes
This research applies transfer learning to leverage docking knowledge from well-studied proteins to predict binding in understudied protein families. The work accelerates drug repurposing discovery by reducing training data requirements for novel therapeutic targets.
Academic (A)Tech (T)Research (R)
1 Month
A · £268
T · £747
R · £1,086
3 Months
A · £982
T · £1,200
R · £1,746
6 Months
A · £2,182
T · £2,667
R · £3,879
14 more durationsView Titles →
Ensemble Deep Learning for Multi-Target Polypharmacology Prediction
This research develops ensemble neural networks that simultaneously predict binding across multiple disease-relevant protein targets. The work identifies polyvalent drugs with beneficial multi-target engagement profiles suited for complex disease treatment.
Academic (A)Tech (T)Research (R)
1 Month
A · £268
T · £735
R · £1,068
3 Months
A · £966
T · £1,180
R · £1,717
6 Months
A · £2,146
T · £2,623
R · £3,814
14 more durationsView Titles →
Physics-Informed Neural Networks for Molecular Force Field Simulation
This research integrates physical constraints and molecular mechanics into neural network architectures for docking predictions. The work generates computationally efficient alternatives to traditional molecular dynamics that maintain scientific validity.
Academic (A)Tech (T)Research (R)
1 Month
A · £268
T · £747
R · £1,086
3 Months
A · £982
T · £1,200
R · £1,746
6 Months
A · £2,182
T · £2,667
R · £3,879
14 more durationsView Titles →
Attention Mechanism Analysis of Ligand-Protein Interaction Hotspots
This research applies attention mechanisms to identify critical binding site residues that determine successful drug-protein recognition. The work reveals actionable target regions that guide rational design of repurposed drug analogs with improved potency.
Academic (A)Tech (T)Research (R)
1 Month
A · £268
T · £753
R · £1,095
3 Months
A · £990
T · £1,210
R · £1,760
6 Months
A · £2,200
T · £2,689
R · £3,911
14 more durationsView Titles →
Federated Learning for Distributed Drug Docking Database Integration
This research develops federated machine learning protocols that train docking models across decentralized pharmaceutical and biotech datasets. The work enables collaborative prediction models that preserve data privacy while improving repurposing candidate identification.
Academic (A)Tech (T)Research (R)
1 Month
A · £268
T · £796
R · £1,158
3 Months
A · £1,047
T · £1,280
R · £1,861
6 Months
A · £2,326
T · £2,843
R · £4,135
14 more durationsView Titles →
Reinforcement Learning-Driven Molecular Docking Pose Optimization
This research applies reinforcement learning agents that iteratively optimize ligand placement within protein binding pockets through simulated docking moves. The work generates superior binding conformations that improve virtual screening accuracy for drug repurposing pipelines.
Academic (A)Tech (T)Research (R)
1 Month
A · £268
T · £824
R · £1,199
3 Months
A · £1,084
T · £1,324
R · £1,926
6 Months
A · £2,407
T · £2,942
R · £4,279
14 more durationsView Titles →