Skip to main content

Artificial Intelligence for Computational Chemistry and Computational Drug Design


Welcome to our website!

We are an independent research group focusing on applying message-passing neural networks to model potential energy surfaces and point cloud–based deep learning methods for drug discovery.


Amir Mahdi Zardoshti

> B.Sc. Applied Chemistry — University of Tehran

> M.Sc. Physical Chemistry — Sharif University of Technology


Supervisor:

Prof. Zahra Jamshidi (Link)(Link)


E-mail: mahdi.zardoshti02@sharif.edu

CV: [Download Link]

LinkedIn: [Link]

GitHub: [Link]







 

Amir Reza Zardoshti


> M.Sc. Biochemistry— University of Tehran


E-mail: reza.zardoshti02@ut.ac


CV: [Download Link]

LinkedIn: [Link]

GitHub: [Link]







 

Highlighted Research Projects

AI for Computational Drug Design


>>> Point cloud–based deep learning for predicting drug efficacy on the VEGFR2 protein.


>>> Generative point-cloud models combined with transformer-based SMILES captioning for de novo drug design.



 AI for Computational Chemistry


>>> Message-Passing Neural Networks for Small Protein Folding Pathways.


>>> Machine-learning–enhanced molecular dynamics for infrared (IR) spectral simulation.


>>> Accelerating the global search of Ag/Au clusters using message-passing neural networks and Gaussian process regression.


>>> Learning ground- and excited-state potential energy surfaces for non-adiabatic molecular dynamics.


>>> Applying transfer learning to achieve high-level (e.g., CCSD(T)-quality) potential energy surfaces.

Point Cloud-based Deep Learning to Predict Drug Efficacy on the VEGFR2 Protein

Generative Point Cloud Model with Transformer-Based SMILES Captioning for De Novo Drug Design.

Machine Learning–enhanced Molecular Dynamics for Infrared spectral Simulation


Research Interests — Architectures                                             

> Geometric Deep Learning
> Point Clouds Processing
> Graph Neural Networks
> Deep Tensor Neural Networks (DTNN)
> Generative Models
> Transformer Architecture
> Long Short-Term Memory (LSTM)


Our GPUs: NVIDIA RTX 3090 & NVIDIA Tesla K80


Headline

NVIDIA GeForce RTX 3090

  • VRAM: 24 GB GDDR6X

  • CUDA Cores: 10,496

  • Release Year: 2020


  • Headline

    NVIDIA Tesla K80

  • VRAM: 24 GB GDDR5 (12 GB per GPU, dual-GPU card)

  • CUDA Cores: 4,992 (2,496 per GPU)

  • Release Year: 2014