Peter Banzer

Dr. Peter Banzer

orcid

Research Focus & Metrics

Academic Career Length

20Years (2007-Present)

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

Representative Publications

View All Publications
25 November 2016 in Journal of Optics
Verified
Journal Article
Closed access
PDF file
HRHalina Rubinsztein-Dunlop
Halina Rubinsztein-Dunlop
AFAndrew Forbes
Andrew Forbes
MBM V Berry
M V Berry
MDM R Dennis
M R Dennis
DADavid L Andrews
David L Andrews
AWAndrew M Weiner
Andrew M Weiner
Structured light refers to the generation and application of custom light fields. As the tools and technology to create and detect structured light have evolved, steadily the applications have begun to emerge. This roadmap touches on the key fields within structured light from the perspective of experts in those areas, providing insight into the current state and the challenges their respective fields face. Collectively the roadmap outlines the venerable nature of structured light research and the exciting prospects for the future that are yet to be realized.

27 November 2015 in Nature Photonics
Verified
Journal Article
Closed access
AAAndrea Aiello
Andrea Aiello
PBPeter Banzer
Peter Banzer
MNMartin Neugebauer
Martin Neugebauer
GLGerd Leuchs
Gerd Leuchs

27 February 2015 in Science
Verified
Journal Article
Closed access
PDF file
TBThomas Bauer
Thomas Bauer
PBPeter Banzer
Peter Banzer
EKEbrahim Karimi
Ebrahim Karimi
SOSergejus Orlovas
Sergejus Orlovas
ARAndrea Rubano
Andrea Rubano
GLGerd Leuchs
Gerd Leuchs
Light with twist and structure: Möbius strips are three-dimensional structures consisting of a surface with just a single side. Readily demonstrated by snipping a paper ring, adding a twist, and then joining the ends of paper together again, these structures have intriguing mathematical properties in terms of topology and geometry. Bauer et al. used a liquid crystal to engineer the wavefront of a laser beam to make an optical version of the Möbius strip by effectively “snipping and twisting” the polarization properties of the light beam. Science , this issue p. 964

9 February 2015 in Physical Review Letters
Verified
Journal Article
Closed access
PDF file
MNMartin Neugebauer
Martin Neugebauer
TBThomas Bauer
Thomas Bauer
AAAndrea Aiello
Andrea Aiello
PBPeter Banzer
Peter Banzer
We generate tightly focused optical vector beams whose electric fields spin around an axis transverse to the beams’ propagation direction. We experimentally investigate these fields by exploiting the directional near-field interference of a dipolelike plasmonic field probe placed adjacent to a dielectric interface. This directionality depends on the transverse electric spin density of the excitation field. Near- to far-field conversion mediated by the dielectric interface enables us to detect the directionality of the emitted light in the far field and, therefore, to measure the transverse electric spin density with nanoscopic resolution. Finally, we determine the longitudinal electric component of Belinfante’s elusive spin momentum density, a solenoidal field quantity often referred to as “virtual.”

10 November 2013 in Nature Photonics
Verified
Journal Article
Closed access
PDF file
TBThomas Bauer
Thomas Bauer
SOSergejus Orlovas
Sergejus Orlovas
UPUlf Peschel
Ulf Peschel
PBPeter Banzer
Peter Banzer
GLGerd Leuchs
Gerd Leuchs

6 October 2017 in Science Advances
Verified
Journal Article
Open access
PDF file
MLMartin P. J. Lavery
Martin P. J. Lavery
CPChristian Peuntinger
Christian Peuntinger
KGKevin Günthner
Kevin Günthner
PBPeter Banzer
Peter Banzer
DEDominique Elser
Dominique Elser
GLGerd Leuchs
Gerd Leuchs
This study of structured light’s propagation across a 1.6-km free-space link indicates that adaptations to models may be required.