Lou Kondic

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Lou Kondic is an applied mathematician and Distinguished Professor in the Department of Mathematical Sciences at the New Jersey Institute of Technology (NJIT). His research focuses on thin film fluid dynamics, complex flows and granular media. [1]

Contents

Academic career

Kondic graduated with a BSc in physics from the University of Zagreb, Croatia in 1989. Following a brief period at the Institute Rudjer Boskovic, he began his PhD studies in physics at The City College of The City University of New York.  After graduating in 1995, he spent two years at the Courant Institute of Mathematical Sciences of New York University working with Michael Shelley.  Subsequently, he spent two years at Duke University working with Robert P. Behringer in the Department of Physics and Andrea Bertozzi in the Department of Mathematics. In 1999, he joined the faculty of the Department of Mathematical Sciences at New Jersey Institute of Technology, where he has held the title of Distinguished Professor since 2019. [2]  

Research contributions

Kondic has contributed extensively to research progress in the fields of fluid mechanics and granular matter.  His PhD Thesis "Theory of sonoluminescence" was one of the early works that helped understand the intriguing effect of light emerging from bubbles. [3]   His later work included extensive studies of stability of thin films in a variety of contexts ranging from gravitationally-driven flow on surfaces [4] to instabilities of liquid metals on the nanoscale. [5]   He has also worked extensively on applications of computational topology, in particular persistence homology, to the analysis of interaction fields in granular systems.  He uses his research to engage undergraduate students through various projects in NJIT's Capstone Laboratory, [6] and is a co-founder of the Complex Flows and Soft Matter [7] group.   

According to Google Scholar, his publications have received over 4,500 citations, and his h-index is 37. [8]  

Selected publications

Professional service

Honors & awards

Related Research Articles

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<span class="mw-page-title-main">Shear thinning</span> Non-Newtonian fluid behavior

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In fluid mechanics, the thin-film equation is a partial differential equation that approximately predicts the time evolution of the thickness h of a liquid film that lies on a surface. The equation is derived via lubrication theory which is based on the assumption that the length-scales in the surface directions are significantly larger than in the direction normal to the surface. In the non-dimensional form of the Navier-Stokes equation the requirement is that terms of order ε2 and ε2Re are negligible, where ε ≪ 1 is the aspect ratio and Re is the Reynolds number. This significantly simplifies the governing equations. However, lubrication theory, as the name suggests, is typically derived for flow between two solid surfaces, hence the liquid forms a lubricating layer. The thin-film equation holds when there is a single free surface. With two free surfaces, the flow must be treated as a viscous sheet.

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References

  1. "Lou Kondic | People". people.njit.edu. Retrieved 2021-08-09.
  2. Kondic, Lou. "Curriculum Vitae" (PDF). New Jersey Institute of Technology.
  3. 1 2 "Theoretical studies of sonoluminescence radiation: Radiative transfer and parametric dependence" (PDF).
  4. 1 2 "Instabilities in gravity-driven flow of thin fluid films" (PDF).
  5. 1 2 "Liquid-state dewetting of pulsed-laser-heated nanoscale metal films and other geometries" (PDF).
  6. "Capstone Laboratory, NJIT".
  7. "Complex Flows and Soft Matter group".
  8. "Lou Kondic". scholar.google.com. Retrieved 2021-08-09.
  9. "Topology of force networks in compressed granular media" (PDF).
  10. "Non-Newtonian Hele-Shaw flow and the Saffman-Taylor instability" (PDF).
  11. "Lou Kondic | Fulbright Scholar Program". cies.org. Retrieved 2021-08-05.
  12. "Premiadas/os 2017". Argentina.gob.ar (in Spanish). 2019-04-29. Retrieved 2021-08-05.
  13. "APS Fellow Archive". www.aps.org. Retrieved 2021-08-05.
  14. "Excellence in Research Prize & Medal | Governing Boards". www5.njit.edu. Retrieved 2021-08-05.