Signe Kjelstrup

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Professor

Norwegian University of Science and Technology
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Norway

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About

Professor Signe Kjelstrup is a faculty member at the Norwegian University of Science and Technology, Norway. Her research interests encompass thermodynamics, transport processes in porous media, and biological adaptations in seals. Recent publications highlight her work on ion-exchange membranes, heat retention in nasal cavities, and nanoparticle dynamics in hydrogels.

Recent Grants

Grant: Close

Next generation thermoelectric energy converters

Open Date: 2012-01-01

Close Date: 2015-12-31

Grant: Close

6th International Workshop on Nonequilibrium Thermodynamics

Open Date: 2012-01-01

Close Date: 2012-12-31

Grant: Close

Nanodesign to Improve the Catalytic layer of the polymer Electrolyte fuel cell (NICE)

Open Date: 2011-01-01

Close Date: 2014-12-31

Grant: Close

Reverse ElectroDialysis; a Sustainable DC Power Source

Open Date: 2010-01-01

Close Date: 2016-12-31

Grant: Close

China: Study of CO2 storage in gas hydrates in oceanic sediments

Open Date: 2010-01-01

Close Date: 2013-12-31

Articles (20)

Interpreting pore-scale fluctuations: Predicting transport coefficients in multiphase flow through porous media using the Green–Kubo formulation—An experimental investigation

Flow fluctuations that are commonly associated with multiphase flow in porous media are studied using concepts from non-equilibrium thermodynamic and statistical mechanics. We investigate how the Green–Kubo formulation of the fluctuation dissipation theorem can be used to predict the transport coefficient from the two-phase extension of Darcy's law. Flow rate-time series data are recorded at the millisecond timescale using a novel experimental setup that allows for the determination of flow fluctuation statistics. By using Green–Kubo relations, a transport coefficient is predicted based on the integrated autocorrelation function. Notably, this coefficient aligned closely with the total effective phase mobility computed using Darcy's equation for multiphase flow, particularly in scenarios where a linear relationship between flow rate and pressure gradient was observed. Our results open a new field of coefficient explorations where microscale fluctuations during multiphase flow are directly linked to macroscale parameters.

Year:

2024

Collaborators (10)

Catharina Davies

Professor

Norwegian Institute of Science and Technology

NORWAY

Dick Bedeaux

Norwegian University of Science and Technology

NORWAY

Ryan T. Armstrong

-

AUSTRALIA

Matthew Mason

Professor of Comparative Physiology

University of Cambridge

UNITED KINGDOM

Mohammad Ebadi

Associate Lecturer

University of New South Wales - Randwick Campus

AUSTRALIA

Lars Folkow

Professor

UiT Norges arktiske universitet

NORWAY

Peter Krüger

Professor

Chiba Daigaku

JAPAN

Nima Shokri

Director, Chair and Professor

Hamburg University of Technology

GERMANY

Natalya Kizilova

University of Warsaw

POLAND

Patrick Huber

Professor and Institute Director

Universität Hamburg

GERMANY
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