Current Group Members*
Dr. Kimberly A. Stevens (started at Purdue in Fall 2018)
Background: PhD, Brigham Young University, 2018 in Mechanical Engineering.
Research topic: biomechanics of cerebral aneurysms, including patient specific modeling and computational analysis accounting for fluid--structure interactions.
Joint appointment with Prof. Vitaliy L. Rayz's Cardiovascular Flow Modeling Laboratory in the Weldon School of Biomedical Engineering.
Vishal Anand (started at Purdue in Fall 2016)
Background: BTech & MTech, IIT Kharagpur, 2010 in Thermal, Energy and Environmental Engineering.
Research topic: fluid--structure interactions at low Reynolds number including evaluating the effect of vessel geometry (rectangular versus cylindrical); non-Newtonian fluids; computational validation.
Daihui Lu (started at Purdue in Fall 2016)
Background: MS, Xi'an Jiaotong Univeristy, 2016 in Fluid Machinery and Engineering; BS, China University of Petroleum, Beijing 2013, in Oil and Gas Storage and Transportation Engineering.
Research topic: multiphase flows (including particulate suspensions) in the presence of geometric varations; viscous fingering, interfacial instabilities.
Tanmay C. Shidhore (started at Purdue in Spring 2016)
Background: BE, MS, Birla Institute of Technology and Science, 2015 in Mechanical Engineering, Physics;
MSME, Purdue Univeristy, 2018, Thesis: "Computational Analysis of Fluid-Structure Interactions in Shallow, Deformable Microchannels"
Research topic: computational modeling of biophysiological fluid--structure interactions, including their effect on bleb formation and growth in cerebral aneurysms; mechanistic evaluation of the probability of aneurysmal rupture.
Co-advised by Prof. Vitaliy L. Rayz (Weldon School of Biomedical Engineering, Purdue University)
Xiaojia Wang (started at Purdue in Fall 2018)
Background: MS, Shanghai Jiao Tong Univeristy, 2018 in Naval Architecture and Ocean Engineering; BS, Tianjin University, 2015 in Ocean and Naval Engineering.
Research topic: modeling and simulation of instabilities and mixing due to microscale fluid--structure interactions.
MSME (with Thesis) Students
Aditya Ghodgaonkar (started at Purdue in Fall 2017)
Background: BE, R.V. College of Engineering, Bangalore, in Mechanical Engineering.
Research topic: non-Newtonian viscous gravity currents; computational methods for gravity currents; similarity solutions.
Undergraduate Students (BSME)
Sibi Chandrasekhar (started at Purdue in Fall 2015)
Research topic: interface motion by to phase change and diffusion.
Zihao Lin (started at Purdue in Fall 2016, SURF 2018)
Research topic: stability of the interface between two immiscible liquids during injection into a tapered Hele-Shaw cell.
Julia Meyer (started at Purdue in Fall 2015, SURF 2017)
Research topic: dynamics and thermodynamics of coherent structures near phase transitions.
Usamah Zaman (started at Purdue in Fall 2015)
Research topic: ANSYS simulations of fluid--structure interactions of viscous internal flows in deformable conduits.
Tanmay Inamdar (Purdue, MSME thesis, defended Spring 2018)
First position after graduation: Engineer, Cummins Inc.
Joshua David JR (IIT-Madras, PURE 2018 participant)
Research topic: ANSYS simulation and mathematical modeling of fluid--structure interactions between a power-law fluid and deformable microchannel with an elastic top wall.
Dr. Federico Municchi (Postdoc, Fall 2017--Fall 2018)
Research topic: computational modeling of multiphase flows and fluid--structure interactions; OpenFOAM solver development.
First position after Purdue: Research Fellow in Applied Mathematics at The University of Nottingham, United Kingdom.
Pranay P. Nagrani (NIT-Karnataka, Surathkal, S. N. Bose Scholars Program 2018 exchange)
Research topic: OpenFOAM simulation of low Reynolds number particulate flows through contractions, comparison between the suspension balance and two fluid models.
Zoë Song Penko (University of Alabama at Birmingham, SURF 2018 participant)
Research topic: computational analysis of universality in viscous fluid spreading and leveling.
Sanketh Saravanan (IIT-Madras, PURE 2017 participant)
Research topic: ANSYS simulation of fluid--structure interactions in deformable tubes, comparisons with basic theory.
First position after graduation: Management Science & Engineering MS program at Columbia University.
Arjun SR (Purdue, MSME non-thesis, independent study Spring 2017)
Research topic: fluid--structure interactions between high-speed bubbly flows and pipes, solving the relevant hyperbolic conservation laws with PyClaw.
First position after graduation: Engineer, Cummins Inc.
Mengying Wang (Purdue, MSME thesis, defended Spring 2018)
Thesis: "Mixing by Cutting and Shuffling a Line Segment: The Effect of Incorporating Diffusion"
First position after graduation: PhD studies in Mechanical Engineering at Northwestern University.
* By appointment/degree type, then alphabetically.
The Transport: Modeling, Numerics & Theory Laboratory (TMNT Lab) strives to combine advanced mathematical concepts and experimental results with physical intuition about the modeling of flowing materials in order to make progress on fundamental questions in mechanics. Specifically, an overarching theme of the TMNT Lab's research is transport (e.g., as a means of effecting mixing or for mitigating separation).
A note to prospective students:
For further information on applying to Purdue and admissions to the ME graduate programs click on the respective links. Admissions are only made by the Graduate School at Purdue on the recommendation of the ME Graduate Admissions Committee. The PI does not and cannot admit applications, therefore applications must be sent to the Graduate School and the School of ME at Purdue, no applications should be sent to the TMNT Lab or the PI.
Due to an extreme amount of email regarding positions and admissions, at this time it is the TMNT Lab policy that only the most urgent and relevant emails can be answered. Apologies in advances to the rest. For example, general inquires (e.g., "are there positions available?") about graduate studies cannot be answered due to volume. Meanwhile, specific inquiries (e.g., "I have read your 2018 paper in JFM, and I am attempting to use the result in equation (xy) to do [blank], can I ask the following questions ... ?") from those with high academic and research qualifications are welcome and will be answered with priority.