activity
20122021
most citedBubble-Driven Inertial Micropump

36 citations · 69 across the 5 of their papers we have counts for

collaborators

5 papers

physics.flu-dyn2021★ 7 cited

Temperature Dependence of Inertial Pumping in Microchannels

Pavel E. Kornilovitch, Tyler Cochell, Alexander N. Govyadinov

Inertial pumping is a promising new method of moving fluids through microchannels but many of its properties remain unexplored. In this work, inertial flow rates are investigated f…

physics.flu-dyn2018★ 8 cited

Microfluidic switchboards with integrated inertial pumps

Brandon S. Hayes, Alexander N. Govyadinov, Pavel E. Kornilovitch

Arrays of H-shape microfluidic channels connecting two different fluidic reservoirs have been built with silicon/SU8 microfabrication technologies utilized in production of thermal…

physics.flu-dyn2016

Path to Low Cost Microfluidics

Alexander N. Govyadinov, Erik Torniainen, Pavel Kornilovitch +1

The paper describes a novel concept for a low cost microfluidic platform utilizing materials and processes used in low cost thermal inkjet printing. The concept re-purposes the jet…

cond-mat.other2012★ 18 cited

One-dimensional model of inertial pumping

P. E. Kornilovitch, A. N. Govyadinov, D. P. Markel +1

A one-dimensional model of inertial pumping is introduced and solved. The pump is driven by a high-pressure vapor bubble generated by a microheater positioned asymmetrically in a m…

physics.flu-dyn2012★ 36 cited

Bubble-Driven Inertial Micropump

Erik D. Torniainen, Alexander N. Govyadinov, David P. Markel +1

The fundamental action of the bubble-driven inertial micropump is investigated. The pump has no moving parts and consists of a thermal resistor placed asymmetrically within a strai…