Michael Seifner

Dr. Michael Seifner

orcid

Research Focus & Metrics

Academic Career Length

13Years (2014-Present)

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

Representative Publications

View All Publications
8 July 2019 in ACS Nano
Verified
Journal Article
Closed access
MSMichael Seifner
Michael Seifner
ADAlain Dijkstra
Alain Dijkstra
JBJohannes Bernardi
Johannes Bernardi
ASAndreas Steiger-Thirsfeld
Andreas Steiger-Thirsfeld
MSMasiar Sistani
Masiar Sistani
SBSven Barth
Sven Barth

29 June 2015 in Chemical Communications
Verified
Journal Article
Closed access
PDF file
SBSven Barth
Sven Barth
MSMichael Seifner
Michael Seifner
JBJohannes Bernardi
Johannes Bernardi
The first bottom-up synthesis of Ge 1−x Sn x nanowires with a high tin content of 12.4 ± 0.7 at% was developed.

21 August 2015 in Chemistry of Materials
Verified
Journal Article
Closed access
MSMichael Seifner
Michael Seifner
FBFelix Biegger
Felix Biegger
ALAlois Lugstein
Alois Lugstein
JBJohannes Bernardi
Johannes Bernardi
SBSven Barth
Sven Barth

16 March 2020 in Chemistry of Materials
Verified
Journal Article
Closed access
SBSven Barth
Sven Barth
MSMichael Seifner
Michael Seifner
SMStephen Maldonado
Stephen Maldonado

13 November 2017 in Chemistry of Materials
Verified
Journal Article
Closed access
MSMichael Seifner
Michael Seifner
SHSergi Hernández
Sergi Hernández
JBJohannes Bernardi
Johannes Bernardi
ARAlbert Romano-Rodriguez
Albert Romano-Rodriguez
SBSven Barth
Sven Barth

27 February 2018 in ACS Sensors
Verified
Journal Article
Open access
LHLukas Hrachowina
Lukas Hrachowina
GDGuillem Domènech-Gil
Guillem Domènech-Gil
APAntonio Pardo
Antonio Pardo
MSMichael Seifner
Michael Seifner
IGIsabel Gràcia
Isabel Gràcia
SBSven Barth
Sven Barth
A new method for the site-selective synthesis of nanowires has been developed to enable material growth with defined morphology and at the same time different composition on the same chip surface. The chemical vapour deposition approach for the growth of these nanowire-based resistive devices using micromembranes can be easily modified and represents a simple, adjustable fabrication process for the direct integration of nanowire meshes in multifunctional devices. This proof-of-concept study includes the deposition of SnO2, WO3 and Ge nanowires on the same chip. The individual resistors exhibit adequate gas sensing responses towards changing gas concentration of CO, NO2 and humidity diluted in synthetic air. The data have been processed by principal component analysis with cluster responses that can be easily separated and thus the devices described herein are in principle suitable for environmental monitoring.