Simon Kuhn

Prof. Simon Kuhn

orcid

Research Focus & Metrics

Academic Career Length

21Years (2006-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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13 November 2017 in Chemical Society Reviews
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Journal Article
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CPCesar Parra-Cabrera
Cesar Parra-Cabrera
CAClement Achille
Clement Achille
SKSimon Kuhn
Simon Kuhn
RARob Ameloot
Rob Ameloot
This review highlights the research using 3D printing and computational modeling as digital tools for the design and fabrication of reactors and structured catalysts.

18 April 2012 in Langmuir
Verified
Journal Article
Closed access
VCVictor Sebastian Cabeza
Victor Sebastian Cabeza
SKSimon Kuhn
Simon Kuhn
AKAmol A. Kulkarni
Amol A. Kulkarni
KJKlavs F. Jensen
Klavs F. Jensen

22 September 2016 in Reaction Chemistry & Engineering
Verified
Journal Article
Open access
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AGAsterios Gavriilidis
Asterios Gavriilidis
Achilleas ConstantinouAchilleas Constantinou
Achilleas Constantinou
KHKlaus Hellgardt
Klaus Hellgardt
KHKing Kuok Hii
King Kuok Hii
GHGraham J. Hutchings
Graham J. Hutchings
SMStephen P. Marsden
Stephen P. Marsden
This collaborative review (between teams of chemists and chemical engineers) describes the current scientific and operational hurdles that prevent the utilisation of aerobic oxidation reactions for the production of speciality chemicals and active pharmaceutical ingredients (APIs).

17 May 2011 in Angewandte Chemie International Edition
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Journal Article
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TNTimothy Noël
Timothy Noël
SKSimon Kuhn
Simon Kuhn
AMAndrew J. Musacchio
Andrew J. Musacchio
KJKlavs F. Jensen
Klavs F. Jensen
SBStephen L. Buchwald
Stephen L. Buchwald

1 September 2014 in Chemical Engineering Science
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Journal Article
Open access
AWA. Woitalka
A. Woitalka
SKSimon Kuhn
Simon Kuhn
KJK.F. Jensen
K.F. Jensen
We address liquid–liquid mass transfer between immiscible liquids using the system 1-butanol and water, with succinic acid as the mass transfer component. Using this system we evaluate the influence of two-phase flow transitions from Taylor flow to stratified flow and further to dispersed flow at elevated flow rates. In addition, we address the scale-up behavior of mass transfer coefficients and the extraction efficiency by using reactors on the micro- and the milli-scale. Flow imaging enables us to identify the different flow regimes and to connect them to the trends observed in mass transfer, and the obtained results highlight the dependence of mass transfer on flow patterns. Furthermore, the results show that on the milli-scale fluid–structure interactions are driving the phase dispersion and interfacial mass transfer, and such a reactor design ensures straightforward scalability from the micro- to the milli-scale

11 January 2020 in Materials
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Journal Article
Open access
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ZDZhengya Dong
Zhengya Dong
CDClaire Delacour
Claire Delacour
KCKeiran Mc Carogher
Keiran Mc Carogher
AUAniket Udepurkar
Aniket Udepurkar
SKSimon Kuhn
Simon Kuhn
Ultrasonic small scale flow reactors have found increasing popularity among researchers as they serve as a very useful platform for studying and controlling ultrasound mechanisms and effects. This has led to the use of these reactors for not only research purposes, but also various applications in biological, pharmaceutical and chemical processes mostly on laboratory and, in some cases, pilot scale. This review summarizes the state of the art of ultrasonic flow reactors and provides a guideline towards their design, characterization and application. Particular examples for ultrasound enhanced multiphase processes, spanning from immiscible fluid–fluid to fluid–solid systems, are provided. To conclude, challenges such as reactor efficiency and scalability are addressed.