Bold font indicates members of our group (either Dr. Pujara or students/researchers directly advised by him). There are links to the pdf, data, and code after each citation.

A complete list of publications can also be found on Dr. Pujara’s Google Scholar page.

#### Journal Publications

##### 2022

**Davidson B**, **Batista K**, **Samrah S**, Mendoza L M R, **Pujara N**, 2022. Microplastic contamination of sediments across and within three beaches in western Lake Superior. *J Great Lakes Res*, 48, 1563–1572. [pdf]

**Meza-Valle C** and **Pujara N**, 2022. Flow in oscillatory boundary layers over permeable beds. *Physics of Fluids*, 34, 092112. [pdf]

DiBenedetto M H, Clark L K, **Pujara N**, 2022. Enhanced settling and dispersion of inertial particles in surface waves. *Journal of Fluid Mechanics*, 936, A38. [pdf]

**Ma K, Pujara N**, and Thiffeault J-L, 2022. Reaching for the surface: Spheroidal microswimmers in surface gravity waves. *Physical Review Fluids**,* 7, 014310. [pdf]

##### 2021

Castendyk D N, Dugan H A, Gallagher H A, **Pujara N**, Doran P T, Priscu J C, Lyons W B , 2021. Barotropic seiches in a perennially ice‐covered lake, East Antarctica. *Limnology and Oceanography Letters*, 7, 26-33. [pdf]

**Pujara N**, Arguedas-Leiva J, Lalescu C, Bramas B, and Wilczek M, 2021. Shape- and scale-dependent coupling between spheroids and velocity gradients in turbulence. *Journal of Fluid Mechanics,* 922, R6. [pdf]

**Pujara N**, Du Clos K T, Ayres S, Variano E A, and Karp-Boss, L, 2021. Measurements of trajectories and spatial distributions of diatoms (*Coscinodiscus* spp.) at dissipation scales of turbulence. *Experiments in Fluids* 62**, **149. [pdf] [data]

##### 2020

**Pujara N**, **Miller D**, Park Y S, Baldock T, and Liu P L-F, 2020. The influence of wave acceleration and volume on the swash flow driven by breaking waves of elevation. *Coastal Engineering*, 158:103697. [pdf]

##### 2019

**Pujara N**, Voth G A, and Variano E A, 2019. Scale-dependent alignment, tumbling and stretching of slender rods in isotropic turbulence. *Journal of Fluid Mechanics*, 860, pp. 465–486. [pdf]

##### 2018

**Pujara N**, Oehmke T B, Bordoloi A D, and Variano E A, 2018. Rotations of large, inertial cubes, cuboids, cones, and cylinders in turbulence. *Physical Review Fluids*, 3, 054605. [pdf]

**Pujara N**, Koehl M A R, and Variano E A, 2018. Rotations and accumulation of ellipsoidal microswimmers in isotropic turbulence. *Journal of Fluid Mechanics*, 838, pp. 356–368. [pdf]

##### 2017

**Pujara N**, and Variano E A, 2017. Rotations of small, inertialess triaxial ellipsoids in isotropic turbulence. *Journal of Fluid Mechanics*, 821, pp. 517–538. [pdf]

##### 2016

**Pujara N**, Liu P L-F, and Yeh H, 2016. An integral treatment of friction during a swash uprush. *Coastal Engineering*, 114, pp. 295–300. [pdf] [code]

##### 2015

**Pujara N**, Liu P L-F, and Yeh H, 2015. An experimental study of the interaction of two successive solitary waves in the swash: A strongly interacting case and a weakly interacting case. *Coastal Engineering*, 105, pp. 66–74. [pdf]

**Pujara N**, Liu P L-F and Yeh H, 2015. The swash of solitary waves on a plane beach: flow evolution, bed shear stress and run-up. *Journal of Fluid Mechanics*, 779, pp. 556–597. [pdf]

##### 2014

**Pujara N** and Liu P L-F, 2014. Direct measurements of local bed shear stress in the presence of pressure gradients. *Experiments in Fluids*, 55, 1767. [pdf]

#### Theses

**Pujara N**, 2015. Experimental and analytical investigations of solitary waves on a beach. Ph.D. thesis, Cornell University.