IISER Bhopal

Faculty /

Profile

Snigdha Thakur
Associate Professor

Academic Details

  • Associate Professor (September 2017), Physics, Indian Institute of Science Education and Research, Bhopal, India.
  • Assistant Professor (May 2011 - August 2017) Physics, Indian Institute of Science Education and Research, Bhopal, India.
  • Post doc: Chemical Physics Theory Group, Department of Chemistry, University of Toronto, Toronto, ON, Canada.
  • PhD: (Soft-condensed Matter Physics), Department of Physics, Indian Institute of Technology Madras, Chennai – 600 036, India.

Research

  • Soft Condensed Matter Physics: Liquid Crystal, Rheology of Micellar Solution, Chemically Propelled Nanomotors, Active polymers.
  • Self-propulsion of micron and nanoscale objects in the low Reynolds number regime is commonly observed in biological systems. Examples include molecular motors that undergo conformational changes that lead to directed motion on filaments to carry out active transport tasks in the cell. Motivated from nature the design and application of micro- and nanoscale motors propelled by self-generated forces has sustained substantial interest in the scientific community in recent years. While the ability to design motors in varied geometries with unique properties is well established, the capacity to precisely control the placement and transport of objects at this length scale is much more limited. Such capabilities would be valuable for bottom-up assembly of superstructures and devices, targeted delivery of chemicals etc. We propose to develop methodologies for the controlled motion of a single and an ensemble of nanomotors. We have recently developed one such chemically propelled synthetic motor. We plan to investigate the collective dynamics of such self-propelled particles, which will help us understand the possible universal features of collective motion present at all length scales in nature. Another question we plan to answer is how do nanomotors move and respond to chemically active environments, and can the inhomogeneity in the environment be used to influence the dynamics of motors and possibly provide a way to control their motions?Our long term goal is to design and study the dynamics of a self-propelled polymer nanomotors.

Snigdha Thakur
Associate Professor

# Authors Title Journals Year
1 Manisha Jhajhria
Soudamini Sahoo
Snigdha Thakur
Activity induced non-monotonic aggregation in a mixture of chemically active and passive particles Soft Materials 2023
2 Surabhi Jaiswal
Soudamini Sahoo
Snigdha Thakur
Particle-based mesoscopic model for phase separation in a binary fluid mixture Physical Review E 2023
3 Arabinda Bera
Soudamini Sahoo
Snigdha Thakur
Subir K Das
Active particles in explicit solvent: Dynamics of clustering for alignment interaction Physical Review E 2022
4 Snigdha Thakur
Liyan Qiao
Raymond Kapral
Self-propelled motors in complex fluids and as constituents of active materials Europhysics Letters 2022
5 Namita Jain
Snigdha Thakur
Collapse Dynamics of Chemically Active Flexible Polymer Macromolecules 2022
6 Prabha Chuphal
Soudamini Sahoo
Snigdha Thakur
Effect of Poiseuille flow on the dynamics of active vesicle Soft Materials 2021
7 Soudamini Sahoo
Sunil Pratap Singh
Snigdha Thakur
Role of viscoelasticity on the dynamics and aggregation of chemically active spheredimers Physics of Fluids 2021
8 Snigdha Thakur
Ishwar Venugopal
Prabha Chuphal
Formation of self-propelling clusters starting from randomly dispersed Brownian particles Bulletin of Material Science 2020
9 Snigdha Thakur
Sunil Pratap Singh
Soudamini Sahoo
Enhanced self-propulsion of a sphere-dimer in viscoelastic fluid Soft Matter 2019
10 Christin Puthur
Prabha Chuphal
Snigdha Thakur
Auditya Sharma
Colloidal chemotaxis and a biased random walk model with finite mean first-passage time Europhysics Letters 2019
11 Snigdha Thakur
Varun P
Prabha Chuphal
Dynamics of diffusiophoretic vesicle under external shear flow J Chem Phys 2019
12 Dhruv Singh
Shang Yik Reigh
Snigdha Thakur
Prabha Chuphal
Tingting Yu
Peer Fischer
Chemical micromotors self-assemble and self-propel by spontaneous symmetry breaking Chemical Communications 2018
13 Raymond Kapral
Snigdha Thakur
Prabha Chuphal
Shang Yik Reigh
Diffusiophoretically induced interactions between chemically active and inert particles Soft Matter 2018
14 Snigdha Thakur
Debarati Sarkar
Spontaneous beating and synchronization of extensile active filament The Journal of Chemical Physics 2017
15 Snigdha Thakur
Debarati Sarkar
Coarse-grained simulations of an active filament propelled by a self-generated solute gradient Physical Review E 2016
16 Debarati Sarkar
Abhishekamole B
Snigdha Thakur
Dynamics of Loop Formation in Active Chains Macromol. Symp. 2015
17 Snigdha Thakur
Sreeja K K
Shivam Gupta
Autonomous movement of a chemically powered vesicle Physical Review E 2015
18 Debarati Sarkar
Snigdha Thakur
Yu-Guo Tao
Raymond Kapral
Ring closure dynamics for a chemically active polymer Soft Matter 2014
19 Pavan K Aluri
Sukanta Panda
Manabendra Sharma
Snigdha Thakur
Anisotropic universe with anisotropic sources Journal of Cosmology and Astroparticle Physics 2013
20 Snigdha Thakur
Raymond Kapral
Collective dynamics of self-propelled sphere-dimer motors Physical Review E 2012
21 Raymond Kapral
Jiang-Xing Chen
Snigdha Thakur
Interaction of a chemically-propelled nanomotor with a chemical wave Angewandte Chemie International Edition 2011
22 Raymond Kapral
Snigdha Thakur
Dynamics of self-propelled nanomotors in a chemically active medium The Journal of Chemical Physics 2011
23 Jiang-Xing Chen
Jun-Wen Mao
Snigdha Thakur
Jiang-Rong Xu
Fu-yang Liu
Dynamical phase of driven colloidal systems with short-range attraction and long-range repulsion The Journal of Chemical Physics 2011
24 Mohamed Laradji
Abhijit P Deshpande
Prathyusha K R
Snigdha Thakur
P. B. Sunil Kumar
Shear Induced Ordering in Branched Living Polymer Solutions Soft Matter 2010
25 Raymond Kapral
Snigdha Thakur
Self­propelled nanodimer bound state pairs The Journal of Chemical Physics 2010
26 P. B. Sunil Kumar
Pramod A Pullarkat
Snigdha Thakur
Coarsening through Directed Droplet Coalescence in Fluid­Fluid Phase Separation Physical Review E 2009

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