Sanjeev Garg

Professor

  • Email

    sgarg[AT]iitk.ac.in

  • Office Phone No.

    +91-512-259-7736 (Office)
    +91-512-259-7860 (Lab)

  • Office & Lab

    Faculty Building 453 (Office)
    NL-II-301 (Lab)

  • Group Home Page IRINS Profile

Research Interest

  • Bioinformatics
  • Bioremediation
  • RNA interference
  • Computer aided product and process design
  • Flexibility analysis of chemical and biological systems

Education

  • B. Tech., HBTI, Kanpur, 1995
  • M. Tech., IIT Kanpur, 1997
  • Ph.D., University of Connecticut, Storrs, 2002

Research Overview

Our research group, at the Department of Chemical Engineering, has made important contributions to the interdisciplinary fields of chemical engineering, bioinformatics, bioremediation, and drug delivery systems. Our research projects integrate experimental biology with computational modelling, aiming to solve problems in human health and environmental sustainability.
• Amyloid Beta Aggregation and Alzheimer’s Pathogenesis
The ongoing research activities on this theme have resulted in the development of kinetic models to simulate how Amyloid Beta fibrils aggregate in the brain—a key factor in Alzheimer’s Disease as per amyloid hypothesis. Our models are based on free radical polymerization, with reactive oxygen species (ROS) acting as the initiator. The inhibitory effects of chlorogenic acid, a natural antioxidant, as well as some peptides on Aβ aggregation using extended kinetic models have been investigated. The reported modelling framework is general and can be extended to study other inhibitors like polyphenols, peptides, and metal chelators, offering a predictive tool for drug screening in Alzheimer’s Disease.
• RNA Interference and Neurodegenerative Diseases
In the domain of RNA interference (RNAi), our research group has explored the use of siRNA design and delivery systems for gene silencing, particularly targeting the BACE1 gene implicated in Alzheimer’s disease. The innovative use of polyelectrolyte-gold nano assemblies for neuronal siRNA delivery showcases a promising route for treating neurodegenerative disorders. This research bridges nanotechnology and molecular biology, opening the avenues for targeted delivery.
• Bioinformatics and Gene Expression Analysis
Our research group has applied density-based clustering techniques, graph-theoretic frameworks and global optimization techniques to analyse gene expression data from cDNA microarrays. Our published work on array informatics and gene network modelling enables better understanding of cellular responses and disease mechanisms. This computational approach supports the development of targeted therapies and enhances the predictive power of biological models. It is envisaged to extend this work for using network-based machine learning in neurodegenerative diseases and cancer.
• Rational Drug Design and Controlled Drug Delivery
Research work in the area of computer-aided drug design involves reverse engineering lead compounds using quantitative structure-activity relationships (QSAR). Research students in the group have developed diffusion-controlled drug delivery devices, such as systems for the sustained release of Paclitaxel, a chemotherapy agent. These contributions are vital for improving therapeutic efficacy and minimizing the side effects during treatment.
• Environmental Remediation and Biodegradation
One of the most impactful areas of our research is bioremediation, particularly the degradation of hazardous azo dyes and aromatic amines. Our research group’s work with Klebsiella pneumoniae and recombinant E. Coli has demonstrated enzymatic pathways for breaking down sulphonated azo dyes, offering eco-friendly alternatives to conventional chemical treatments. These studies not only advance microbial biotechnology but also contribute to cleaner industrial practices and wastewater management.
• Process Optimization and Reactor Design
In the domain of chemical engineering, research group has applied multi-objective optimization techniques to improve Circulating Fluidized Bed (CFB) reactor design for maleic anhydride production. The work enhances process efficiency, scalability, and environmental compliance in industrial settings.
• Sustainable Fuels and Biodiesel
Earlier research in the group includes transesterification of non-edible oils for biodiesel production. The optimization of reaction parameters and fuel characterization supported India’s push toward renewable energy sources. It is envisaged that these studies contributed to energy security and reduced dependence on fossil fuels.

Publications

  • Abdul Majid, Sanjeev Garg, Kinetic Modeling of Nucleated Polymerization of Amyloid Beta and Anti-amyloidogenic Activity of Bromocriptine in Alzheimer's Disease, Chemical Engineering Research & Design, 129 (6), 1728–1739 (2025).
  • Abdul Majid, Sanjeev Garg, Inhibition and Degradation of Amyloid Beta Fibrils by Peptide Inhibitors, Journal of Physical Chemistry B, 129 (6), 1728–1739 (2025).
  • Abdul Majid, Sanjeev Garg, Modeling Inhibitory Effects of Chlorogenic Acid on Amyloid Beta Aggregation, Ind. Eng. Chem. Res., 63, 17, 7636–7645 (2024).
  • Abdul Majid, Sanjeev Garg, Reactive oxygen species may cause amyloid beta aggregation by free radical polymerization, Journal of Applied Polymer Science, 141, 14 (2024).
  • S. Dixit, S. Garg, Enzymatic degradation of sulphonated azo dye using purified azoreductase from facultative Klebsiella pneumoniae, Folia Microbiologica, 66, 79 (2020).
  • A. Pramanik, S. Garg, Design of diffusion-controlled drug delivery devices for controlled release of Paclitaxel, Chemical Biology & Drug Design, 94, 1478 (2019).
  • P. Chaudhari, S. Garg, Multi-Objective Optimization of Maleic Anhydride Circulating Fluidized Bed (CFB) Reactors, Chemical Engineering Research and Design, 141, 115 (2019).

Current Students

M.Tech

Neetu

Thesis Topic: Kinetic modeling of metal ion effects on amyloid beta aggregation in Alzheimer’s disease.

PhD

Abdul Majid

Thesis Topic: Modeling ROS Mediated Amyloid Beta Aggregation and the Role of Different Inhibitors

Graduated students

M.Tech

Sani Babul Bowmick

Thesis Topic:Simulation of a membrane bioreactor for the degradation of hazardous sulphonated azo dyes

(Project mode)

Arya Rajgopal

Thesis Topic:A comparative study for parameter estimation in multi-component reaction systems

(Project mode)

Sutonu Sadhukhan

Thesis Topic:Mathematical modelling of the regulatory pathways in Alzheimer’s disease

(Project mode)

Ravi Kumar Garikina

Thesis Topic:Modelling of siRNA delivery using layer by layer approach

Date:3-Jun-2016

Ankur Singh

Thesis Topic:In silico modeling of RNAi in Alzheimer's Disease

Date:12-Aug-2015

Ritu Choudhary

Thesis Topic:Single and Multi-Objective Optimization of Cumene Production Processes

Date:14-Jul-2014

V. Raghuteja Mulakaluri

Thesis Topic:Mineralization of sulphonated aromatic amines: Optimal operating conditions

Date:7-May-2012

Soumil Suhas Shah

Thesis Topic:Modelling the Cytotoxicity of Anti-Tumour Drug - Cisplatin

Date:8-May-2012

Singh, Himanshu Ujjawal

Thesis Topic:Multi-Objective Optimization of Cumene Process

Date:30-Jun-2011

Prashant Pandharinath Barsing

Thesis Topic:Azo Dye Reduction and Aromatic Amine Mineralization Using Bacterial Consortia TJ-1 and TJ-2

Date:11-May-2010

Chandra Sekhar Bandi

Thesis Topic:Multi-objective Clustering of Protein Microarray Data Using NSGA-II-JG

Date:15-Jul-2009

Swapnil Prabhakar Kale

Thesis Topic:Control Drug Release Systems: Prediction of Mutual Diffusion Coefficient

Date:1-Jul-2009

Asha Kiran Ganta

Thesis Topic:Reverse Engineering ‘Small World’ Gene Networks

Date:15-May-2007

Ravi Verma

Thesis Topic:Building Small World Gene Networks from cDNA Microarray Data

Date:4-Jul-2006

Singh Sikarwar Gajendra

Thesis Topic:Array Informatics: Robust Clustering of cDNA Microarray Data

Date:28-Jun-2005

PhD

Courses taught

  • CHE100: Introduction to Chemical Engineering
  • CHE200: Communication Skills for Chemical Engineers
  • CHE251: Process Calculations
  • CHE313: Mass Transfer and Its Applications
  • CHE331: Chemical Reaction Engineering
  • CHE362: Biochemical Engineering
  • CHE391: Chemical Engineering Laboratory-I
  • CHE492: Chemical Engineering Laboratory-II
  • CHE641: Mathematical Methods in Chemical Engineering
  • CHE642: Numerical Methods in Chemical Engineering
  • CHE652: Process Optimization
  • CHE655: Data Science for Process Engineers
  • CHE670: Introduction to Polymer Science and Technology
  • ESO212: Fluid Mechanics and Rate Processes (TUTOR)
  • ESO208: Computational Methods in Engineering (TUTOR)
  • ESO218: Computational Methods in Engineering (TUTOR)
  • MTH101: Mathematics -I (TUTOR)
  • MTH102: Mathematics-II (TUTOR)