This paper describes the experiments on flow rate limitation in open capillary channel flow that were performed on board the International Space Station in 2011. Free surfaces (gas-liquid interfaces) of open capillary channels balance the pressure difference between the flow of the liquid in the channel and the ambient gas by changing their curvature in accordance with the Young-Laplace equation. A critical flow rate of the liquid in the channel is exceeded when the curvature of the free surface is no longer able to balance the pressure difference and, consequently, the free surface collapses and gas is ingested into the liquid. This phenomenon was observed using the set-up described herein and critical flow rates are presented for steady f...
Gas-liquid phase separation under microgravity conditions or in small-scale fluidic systems represen...
Promising technological applications of two-phase flows in space have captured the increasing intere...
In orbit, finding the bottom of your coffee cup is a non-trivial task. Subtle forces often masked ...
This paper provides a description of the experiments on flow rate limitation in open capillary chann...
This paper is concerned with forced flow through partially open capillary channels under microgravit...
Forced liquid flows through open capillary channels with free liquid surfaces are and will be invest...
Capillary techniques with free surfaces provide very reliable means for liquid management in space. ...
The fluid dynamics videos show three-dimensional experimental and numerical investigations of open c...
In this work, we analyze liquid drains from containers in effective zero-g conditions aboard the Int...
In this work, we analyze liquid drains from containers in effective zero-g conditions aboard the Int...
Capillary rise in tubes, channels, and grooves has received significant attention in the literature ...
Abstract In this work, we analyze liquid drains from containers in effective zero-g conditions aboar...
103 pagesThis thesis is comprised of two overarching pieces of work: chapters 1 and 2 analyze and si...
This paper serves as a first presentation of quantitative data reduced from the Capillary Flow Conta...
The Capillary Flow Experiments (CFEs) are a suite of fluid physics flight experiments designed to in...
Gas-liquid phase separation under microgravity conditions or in small-scale fluidic systems represen...
Promising technological applications of two-phase flows in space have captured the increasing intere...
In orbit, finding the bottom of your coffee cup is a non-trivial task. Subtle forces often masked ...
This paper provides a description of the experiments on flow rate limitation in open capillary chann...
This paper is concerned with forced flow through partially open capillary channels under microgravit...
Forced liquid flows through open capillary channels with free liquid surfaces are and will be invest...
Capillary techniques with free surfaces provide very reliable means for liquid management in space. ...
The fluid dynamics videos show three-dimensional experimental and numerical investigations of open c...
In this work, we analyze liquid drains from containers in effective zero-g conditions aboard the Int...
In this work, we analyze liquid drains from containers in effective zero-g conditions aboard the Int...
Capillary rise in tubes, channels, and grooves has received significant attention in the literature ...
Abstract In this work, we analyze liquid drains from containers in effective zero-g conditions aboar...
103 pagesThis thesis is comprised of two overarching pieces of work: chapters 1 and 2 analyze and si...
This paper serves as a first presentation of quantitative data reduced from the Capillary Flow Conta...
The Capillary Flow Experiments (CFEs) are a suite of fluid physics flight experiments designed to in...
Gas-liquid phase separation under microgravity conditions or in small-scale fluidic systems represen...
Promising technological applications of two-phase flows in space have captured the increasing intere...
In orbit, finding the bottom of your coffee cup is a non-trivial task. Subtle forces often masked ...