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Posted By Administration,
Thursday 10 June 2021
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Author: DPG and EPS
On 7 June 2021, the European Physical
Society (EPS) awarded the honorary title of "EPS Historic Site" to an
entire city for the first time.
Bad Honnef, Jena,
Germany, 10 June 2021 – "Since modern times, Jena has had an
extraordinarily high density of historic buildings that are of vital
importance for physics and astronomy," says Lutz Schröter, President of
the German Physical Society (DPG): "That is why we have been keen to
designate the entire city as an historic site." This act is itself
historic in the truest sense of the word, because until now the EPS has
only honoured individual research facilities, laboratories or scientific
institutes; in Germany, for example, the Physikalisch-Technische
Bundesanstalt (PTB) in Berlin, the Ludwig Maximilian University in
Munich, the former Institute of Physics in Würzburg, the former
laboratories of the Heidelberg scientists Gustav Robert Kirchhoff (1824
to 1887) and Robert Wilhelm Bunsen (1811 to 1899), the former Institute
of Physics at the University of Frankfurt, and the RWTH Aachen.
"The History of Science in Jena starts in 1548 with the Collegium Jenense, the oldest University building still in use today, then with the practical astronomy connected to the construction of the Jena observatory. " recalls Luc Bergé, President of the European Physical Society. "In parallel, Jena is the 'City of Light' imprinted with the discovery of the UV radiation by Johann Ritter, then by the microscope theory developed by Ernst Abbe who was moreover employed by Carl Zeiss Company. Carl Zeiss, Schott, Jenoptik … all are distinct examples of fruitful and early cooperation between academic science and the industrial sector, demonstrating that the EPS Historic Site distinction cannot be attributed to one particular building. Therefore, the City of Jena is recognised as an EPS Historic Site as a whole."
"Since
the early modern period, physics and astronomy in Jena have played an
important part in the formation and consolidation of scientific
modernity. Particularly noteworthy are the city´s contributions to
optics, gravitational theory, and solid-state physics, which were
developed in close cooperation with scientific instrument makers and
other scientific disciplines," reads the text on the honorary plaque
that was unveiled at the entrance to the main physics building at
Max-Wien-Platz 1 on Monday, 7 June 2021.
A "physics travel guide" helps track down the historic sites
"The
award for Jena recognises the very special local culture of
innovation," says Christian Forstner, who heads the DPG Division History
of Physics. "Starting with the `Kaiserreich´, this has outlasted all
systems and is still decisive for the successes of the science location
today."
Forstner, who currently teaches as a Heisenberg Fellow at
the University of Jena, initiated the city's application. To help
visitors to Jena learn about the history of physics at the site, a
"Physics Travel Guide" was published to coincide with the award
ceremony, bringing together a selection of the historic sites. In
addition to the central commemorative plaque, the relevant buildings
were provided with a QR code so that visitors can obtain information
directly on site.
The entire spectrum of physics in Jena
The
series of historic sites begins with the Collegium Jenense, the
university's founding site, and continues all the way through the
observatory in the `Schillergasse´. The focus is, of course, on optics
with, among others, the `Hellfeldsches´ House in the `Neugasse´, where
Ernst Abbe founded his microscope theory, as well as buildings of Jena
physics on `Helmholtzweg´ and `Fröbelstieg´. Furthermore, solid state
physics has a long tradition in Jena as well as theoretical physics, for
example with its contributions to gravitational physics.

Unveiling of the commemorative plaque. Image: Jürgen Scheere / Friedrich Schiller Universität
FLTR: Carsten Feller (state secretary), Christian Forstner (DPG Division for the History of Physics), Thomas Nitzsche (Major of Jena), Luc Bergé (EPS president), Walther Rosenthal (President of the Friedrich-Schiller University Jena), Christian Spielmann (Dean of the Physics Department, behind W. Rosenthal), Lutz Schröter (DPG President)
More info...
EPS Historic Sites programme
Brochure of inaugurated EPS Historic Sites
Tags:
City of Jena
distinctions
EPS Historic Site
Permalink
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Posted By Administration,
Thursday 10 June 2021
Updated: Thursday 10 June 2021
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Authors: EPS Young Minds
On 7 May 2021, the EPS Young Minds Leadership Meeting took place as
an online event. It was the first gathering of the whole YM community
since the last leadership meeting 2019 in Erlangen. 55 section
delegates, representing 21 countries and vastly different career levels
ranging from bachelor students to postdocs, attended the meeting and
made it a large success.
The event included two parts, the first
taking place on Zoom and the second on the virtual interaction platform
Gather Town. On Zoom EPS YM programme manager Ophélia Fornari welcomed
the participants and provided an overview of new functionalities for
section management on the EPS website to the participants. Her
presentation was followed by Richard Zeltner, YM Action Committee Chair,
who gave a wrap-up on the years 2020 and 2021 from the YM perspective
and highlighted the numerous section activities that were carried out
despite the ongoing pandemic. He also gave an outlook on the plans for
the rest of the year and 2022 and thanked the members of the Action
Committee that left the programme over the course of the last two years,
in particular Petra Rudolf who handed over the EPS presidentship, and
thus the position in the YM Action Committee, just in April. As the
third speaker, Luc Bergé, current EPS president, presented his agenda and
his plan to establish the EPS Forum to the YM community. The first part
of the meeting was concluded by panel discussion on career advice for
young scientists. The open discussion on topics ranging from the role of
professional media platforms for personal branding over the difference
of working in academia and industry to the importance of aligning career
choices with individual aptitudes and talents was very much appreciated
by the young minds and certainly a highlight of the event.
After
the panel discussion, the meeting transitioned to Gather Town, where the
participants could engage in more informal activities. During a speed
networking event, the participants had the opportunity to refresh old
connections and to establish new ones within the YM community. This was
followed by a Physics Quiz, in which the participants teamed up in small
groups and tested their knowledge, not only on physics but also on
Trivia and on questions of popular science.
Considering the large
number of participants and the very positive feedback that we received
during and after the meeting, the event was a large success. Moreover,
for the sections that started their activity in 2020 and 2021 the
meeting was a great opportunity to gain more insights into the programme
and to connect with the network. Even though, we are very much looking
forward to connect with the YM community physically again in 2022.
Finally,
we would like to warmly thank our panelists Gabrielle Thomas, Lucia
Santamaria, Luc Bergé, Chang Kee Jung and Petra Rudolf for their
contribution to the panel discussion. We also thank Florian Schorn and
Dominik Rattenbacher from the Erlangen section hBar Omega for providing
the Gather Town Environment and their contribution to the Physics Quiz.

Tags:
EPS Young minds
leadership meeting
young physicists
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Posted By Administration,
Thursday 10 June 2021
Updated: Thursday 10 June 2021
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Author: DIPC
SPRING (Spin Research In Graphene) is a EU-funded
H2020 interdisciplinary project that has the objective of developing new
graphene-based magnetic components that contribute to the creation of
faster and environmentally friendly electronic devices. The coordination
institute of this international alliance is CIC nanoGUNE (ES) in
partnership with IBM (CH), University of Santiago de Compostela (ES),
Technical University of Delft (NL), University of Oxford (UK) and
Donostia International Physics Center (ES).
SPRING combines recent
scientific breakthroughs from these six European consortium members to
fabricate custom-crafted magnetic graphene nanostructures and test their
potential as basic elements in quantum spintronic devices. This
interdisciplinary project is covering scientific fields such as
two - dimensional nanostructures, graphene, spintronic, natural sciences
and data processing amongst others. The targeted long-term vision is
the development of an all-graphene – environmentally friendly – platform
where we aim to use spins for transporting, storing and processing
information.
With that mission, in a first stage, open shell
graphene nanostructures will be fabricated with atomic precision and
designed functionality. Their magnetism and spin-states will be then
characterized. Finally, their potential as basic elements in quantum
spintronic devices will be tested.
Find all the information in SPRING´s official portal: https://www.springfetopen.eu/

Representatives of all involved institutions. Image: DIPC
Tags:
DIPC
EPS Associate Members
graphene
spin research
Permalink
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Posted By Administration,
Thursday 10 June 2021
Updated: Friday 11 June 2021
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Author: EUROfusion
Good news for fusion heat exhaust from the new MAST-Upgrade tokamak
Read the full article on the website of UKAEA, UK Atomic Energy Authority.
Dutch researchers investigate a liquid metal inner wall for future fusion reactors
Publication from DIFFER, Dutch Institute for Fundamental Energy Research.
HELZCA, the new European facility for heat-testing ITER components
Article published on the website of Fusion for Energy, the European Union organisation managing Europe’s contribution to ITER.
Hungary’s secret to growing top fusion talent
Work on projects with researchers from BSc year one. Complete article on EUROfusion.
Danish universities join fusion forces in new research consortium
Full article on EUROfusion.
Tags:
DIFFER
EEUROfusion
EPS Associate Members
Europe
F4E
facility
Fusion for Europe
HELZCA
ITER
tokamak
Permalink
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Posted By Administration,
Thursday 10 June 2021
Updated: Friday 11 June 2021
|
Author: IPPLM
In 2014, a new Laboratory (Laboratory of X-ray Diagnostics) was
established at the Institute of Plasma Physics and Laser Microfusion (www.ifpilm.pl)
addressing the needs of plasma fusion for new technologies development.
Its main activity is related to the development of Gas Electron
Multiplier(GEM) based detectors with an ultimate goal of their
application in fusion. The GEM detectors were discovered at CERN and
used for the first time for nuclear physics research (https://gdd.web.cern.ch/).
Considering their unique capabilities, the IPPLM researchers in
collaboration with University of Warsaw and the Warsaw University of
Technology proposed their usage for the fusion plasma measurements. The
main goal is the detection of soft X-ray radiation emitted from plasma
produced in existing or future fusion devices, which delivers
information about various important plasma parameters. The Laboratory is
engaged in detectors design, development and testing of the final
product, being equipped with modern diagnostic tools and necessary
measurement equipment.
The Laboratory conducts development work on
the structure and implementation of GEM detectors. Our main tasks are
the design of the sensor structure, building prototype components,
assembly of the detecting module and their further experimental and
numerical studies towards the purpose of soft X-ray imaging of plasma
structures and monitoring of plasma impurities (such as e.g. tungsten –
material foreseen for the divertor material in ITER).
GEM
technology is relatively new but has been already proven as a robust
one. The “engine” of the detector is a GEM foil, 50 μm thick Kapton
foil, densely perforated, covered on both sides with a thin layer (5 μm)
of copper. This foil becomes an effective amplifying element even in
case a moderately high voltage is applied to its sides, hence reducing
the probability of spontaneous discharges.
For the needs of
research activities conducted within the Laboratory of X-ray
Diagnostics, the IPPLM has been equipped with a modern clean room which
includes professional equipment used exclusively for the preparation of
detector components and their final assembly. In this room, all works
connected with the assembly of detectors are performed. This ranges from
the preparation of frames, gluing the window's foils, conducting all
the intermediate stages of assembly works, up to the assembly of the
final sensor. In addition, there is a fully equipped modern measurement
laboratory where preliminary measurements and studies are conducted
before the final decision is made on the constructed device as well as
the conclusive tests before the detector is finally approved.
The
advantages of the developed detectors allow the IPPLM researchers to
apply them for plasma impurity monitoring at tokamak devices (WEST, JET,
etc.), where the plasma contamination occurs due to the interaction of
the plasma with the surrounding surfaces, i.e. with the materials of the
first wall of the tokamak chamber. As impurities cause plasma energy
losses due to an increase of radiation emission generated by partially
ionised atoms such a task is extremely important for fusion devices.
Therefore, an appropriate diagnostic tool is needed, which would be able
not only to monitor the level of the generated impurities, but also to
reconstruct their spatial distribution.
The IPPLM, together with
the collaborators, contributes to the development of diagnostics on the
WEST and JET tokamaks by the design, construction and installation of
the GEM detectors for plasma monitoring. The detectors are currently
working at the above mentioned two important research centers. The first
diagnostics was built and installed in collaboration with the
University of Warsaw and the Warsaw University of Technology at the JET
tokamak (Culham, UK) in 2014. Another diagnostics aimed at preparation
of the radiation tomography was built in collaboration with the Warsaw
University of Technology. It has been under tests at the WEST device
(Cadarache, France) since 2017. This research is still ongoing on the
last detector, in the frame of soft X-ray tomography diagnostics, to be
installed at the WEST device in the nearest future.
Thanks to the
experience gained over the years in the development of diagnostics based
on the GEM detectors, the IPPLM has become a part of important
scientific programmes performed at JET and WEST tokamaks, ITER-oriented
tokamaks, which means that the IPPLM contributes also to the development
of the scientific programme for ITER.

Clean room. Image: IPPLM
Tags:
GEM detectors
IPPLM
ITER
microfusion
plasma physics
tokamak
X-rays imaging
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Posted By Administration,
Monday 31 May 2021
Updated: Monday 31 May 2021
|
Authors: EPS HEPP Division
The High Energy and Particle Physics Division of the EPS is happy to announce the 2021 EPS HEPP prizes.
The 2021 EPS High Energy and Particle Physics prize is awarded to Torbjörn Sjöstrand and Bryan Webber for
the conception, development and realisation of parton shower Monte
Carlo simulations, yielding an accurate description of particle
collisions in terms of quantum chromodynamics and electroweak
interactions, and thereby enabling the experimental validation of the
Standard Model, particle discoveries and searches for new physics.
The 2021 Giuseppe and Vanna Cocconi Prize is awarded to the Borexino Collaboration
for their ground-breaking observation of solar neutrinos from the pp
chain and CNO cycle that provided unique and comprehensive tests of the
Sun as a nuclear fusion engine.
The 2021 Gribov Medal is awarded to Bernhard Mistlberger
for his groundbreaking contributions to multi-loop computations in QCD
and to high-precision predictions of Higgs and vector boson production
at hadron colliders.
The 2021 Young Experimental Physicist Prize of the High Energy and Particle Physics Division of the EPS is awarded to Nathan Jurik
for his outstanding contributions to the LHCb experiment, including the
discovery of pentaquarks, and the measurements of CP violation and
mixing in the B and D meson systems; and to Ben Nachman
for exceptional contributions to the study of QCD jets as a probe of
QCD dynamics and as a tool for new physics searches, his innovative
application of machine learning for characterising jets, and the
development of novel strategies on jet reconstruction and calibration at
the ATLAS experiment.
The 2021 Outreach Prize of the High Energy and Particle Physics Division of the EPS is awarded to Uta Bilow and Kenneth Cecire
for the long-term coordination and major expansion of the International
Particle Physics Master Classes to include a range of modern methods
and exercises, and connecting scientists from all the major LHC and
Fermilab experiments to school pupils across the world; and to Sascha Mehlhase
for the design and creation of the ATLAS detector and other
interlocking-brick models, creating an international outreach program
that reaches to an unusually young audience.
All prizes will be awarded in a ceremony on July 26, 2021 during the virtual EPS-HEP 2021 conference: https://www.eps-hep2021.eu/
 Complete info about the prizes can be found on the website of the EPS HEPP Division: https://eps-hepp.web.cern.ch/eps-hepp/prizes.php
Tags:
ATLAS
Borexino Collaboration
CP violation
EPS High Energy and Particle Physics prize
Fermilab
Giuseppe and Vanna Cocconi Prize
Gribov Medal
Higgs bosons
LHC
Monte Carlo simulations
Outreach Prize
QCD
solar neutrinos
Stand Model
Young Experimental Physicist Prize
Permalink
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Posted By Administration,
Tuesday 25 May 2021
Updated: Tuesday 25 May 2021
|
In 2013, the European Physical Society launched the Emmy Noether
Distinction to recognise noteworthy women physicists having a strong
connection to Europe through their nationality or work.
Emmy
Noether, with her fundamental and revolutionary work in the areas of
abstract algebra and on the conservation laws in theoretical physics, is
an exceptional historical figure for all generations - past, present
and future - of physicists.
The laureates of the Emmy Noether
Distinction are chosen for their capacity to inspire the next generation
of scientists, and especially encourage women to pursue a career in
physics. Attribution criteria therefore focus on the candidate’s
• research achievements
• endeavours in favour of gender equality and the empowerment of women in physics
• coordination of projects and management activity
• committee memberships
• teaching activities
Nominators are encouraged to address these five points in their proposal.
The EPS Emmy Noether Distinction for Women in Physics is awarded twice a year, in winter and in summer.
The
selection committee, appointed by the EPS Equal Opportunities
Committee, will consider nominations of women physicists working in
Europe for the 2021 Summer Edition of the Emmy Noether Distinction from
the end of May 2021. As is customary for the Summer Edition of the
Distinction, particular attention will be paid to early and mid-career
candidates.
For the present edition, the nomination deadline is extened to June, 11th 2021.
To make a nomination, please, email the following information to the EPS Secretariat:
- A
cover letter, detailing (in no more than 3 paragraphs) the motivation
for awarding the EPS Emmy Noether Distinction to the nominee;
- The nominee’s name, institution and email
- The nominee’s CV
- The nominator’s name, institution, and email
- Optional: No more than 3 support letters
Download the distinction charter
Read more about the EPS Emmy Noether Distinction on the EPS website
Tags:
call
distinction
Emmy Noether
EPS Emmy Noether Distinction
EPS EOC
EPS Equal Opportunities Committee
women in physics
Permalink
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Posted By Administration,
Monday 17 May 2021
|
Research news
Grants
EUROfusion
has awarded multi-year grants to institutes and researchers throughout
Europe. These will allow recipients to set up pioneering research
projects and develop advanced computational methods for fusion in five
Advanced Computing Hubs.
Facility
The
German tokamak experiment ASDEX Upgrade is the birthplace of the unique
high confinement plasma configuration for high-performance fusion.
This
year, we look back on 30 years of exciting fusion research in this
unique facility: https://www.euro-fusion.org/news/2021/march/30-years-of-asdex-upgrade/
Tags:
ASDEX
EPS Associate Member
EUROfusion
fusion
grants
research facility
tokamaks
Permalink
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Posted By Administration,
Monday 17 May 2021
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Author: José María De Teresa
1. Standalone workshops organised by IOP and EPS CMD
IOP
and CMD have joined forces to organise standalone online workshops in
2021 and Q1 in 2022. These online workshops stem from some of the
mini-colloquia proposed for the face-to-face CMD29 conference. The list
of workshops as well as their dates of celebration and deadlines for
abstract submission and registration can be consulted here and will be
frequently updated: http://cmd29.iopconfs.org/onlineseries
Currently, the list of all confirmed online events in this series is:
- Bound states in hybrid superconductor nanostructures, 28-29 June 2021
- Recent advances in quantum thermodynamics with a focus on many-body interactions, 6 July 2021
- Quantum matter at ultra-low temperatures, 20-21 July 2021
- Recent developments in Gas Phase Synthesis of Nanoparticles, 15 September 2021
- Large scale spectral simulations of Topological Matter and Disordered Materials, 4-5 October 2021
- Spin control in twisted van der Waals heterostructures, 18-19 October 2021
- LCM2021 (Localization in Condensed Matter), 17-18 November 2021
- Advances in the Casimir force and heat transfer phenomena, 15 March 2022
2. Memorandum of Understanding (MoU) between the EPS CMD and EMA (European Magnetism Association)
The most important points of the MoU between EPS CMD and EMA, approved in December 2020, are:
- While
remaining legally separate one from another, it is understood that EMA
will fulfill the duties of a Magnetism section of EPS CMD, and that EPS CMD will not organise events or other initiatives in the field of
Magnetism without the concurrence of EMA.
- EMA delegates a member
of its General Council, usually, its president, to the board of
EPS CMD. Conversely, the EPS CMD board will be informed of the meetings
of the general council of EMA, and be invited to send a delegate,
usually, its chairperson, if relevant for the matters discussed.
- Both EPS CMD and EMA have strong programs of technical meetings, and each can benefit from cooperative activities.
3. Two new EPS Fellows from the Condensed Matter Division
Prof. Lucía Sorba and Prof. Angel Rubio have been elected EPS Fellows in the last EPS Council, held on 8th and 9th April 2021.
Prof. Lucía Sorba
has made important contributions to the conception and engineering of
the reliable semiconductor nanostructures, permitting the observation
and control of novel hybrid excitations in condensed matter and the
conception of novel semiconductor-based radiation detectors. Besides,
she has served for many years to the EPS as Chair of the Semiconductor
and Insulator section of the Condensed Matter Division.
Prof. Angel Rubio
has made pioneering contributions to computational solid-state physics,
in particular the development of widely-used frameworks for the
description of the structure and dynamics of correlated electronic
systems as well as his predictions of materials properties at the
nanometer scale and in low dimensions.
Tags:
EPS CMD
EPS Condensed Matter Division
EPS Honorary Members
workshop
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Posted By Administration,
Monday 17 May 2021
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Author: Kees van der Beek

Maria Garcia Parajo – Laureate of the Winter 2020 EPS Emmy Noether Distinction / photo: Maria Garcia Parajo
Maria
Garcia Parajo is the laureate of the Winter 2020 EPS Emmy Noether
Distinction. On behalf of e-EPS, Kees van der Beek, chair of the EPS Equal Opportunities Committee, spoke with her on the
application of physics to cell biology, inspirational figures in
physics, and empowerment of women physicists. COVID-19 restrictions
oblige, the interview was carried out remotely.
Kees van der Beek (KvdB):
Maria, again, my warmest congratulations on the occasion of the Winter
2020 EPS Emmy Noether Distinction. Can you shortly describe what you are
currently working on, and why you feel that it is important?
Maria Garcia Parajo
(MGP): For the last ten years, my team and I have been working on how
the internal organisation, in space and in time, of biomolecules inside
living cells regulate cellular functions. We develop optical techniques
and instrumentation that have the necessary ultrahigh spatio-temporal
resolution and sensitivity to detect individual molecules and the events
relevant for cellular functions. Our research thus truly has two sides:
the development of sophisticated optical and biophysical tools, and
then, there is their application in the physiological context of living
cells.
In the first, we have the development of different
far-field and near-field techniques for super-resolved imaging of
individual molecules (on scales much smaller than those imposed by the
diffraction limit of light). Far-field methods typically use stimulated
emission, which was the object of the Nobel prize in 2014, as well as
single molecule localisation methods in which the center of mass of a
given molecule is pinpointed. A near-field imaging technique that we
use a lot in our group exploits plasmonic modes in nano-antenna.
The
second side concerns applications. I wish to cite two examples, in
which high spatio-temporal resolution is particularly important. The
first is related to the pandemic. We all know that the COVID-19 virus
has specific receptors on its outer shell; both the virus and the host
cell membranes can be seen as ligands to these receptors. The manner in
which the receptors organise themselves in space and time determines how
strong the virus attaches to host cells. The spatio-temporal
organisation of the receptors is therefore important to regulate the
affinity of the virus to the host cells. Another example is the
organisation of DNA or of chromatin inside the nucleus. This determines
the basic mechanisms of the cell functions. We are particularly
interested to the immune system and pathogen binding. Finally, there is
the issue of cancer, which is intimately related to the migration and
adhesion of rogue cells in sites where they do not belong. It is the
deep and constant interplay of physics, physical binding mechanisms, and
biology that fascinates me.
KvdB: Can you tell us how you arrived in this exciting field?
MGP:
I followed a long trajectory, starting from electronic engineering. I
quickly realised that the courses that fascinated me most were those
that had to do with physics, including electromagnetism and solid-state
physics. I therefore enrolled in a Physic Masters programme at my Alma
Mater. All the while, I was looking for opportunities to study
solid-state physics, and chose a Master programme in semiconductor
physics at Imperial College. For my PhD, I fabricated semiconducting
quantum dots in III-V semiconductor heterostructures. One of the
bottlenecks was that our fabrication process rendered these structures
highly inhomogeneous. It was therefore very difficult to study their
optical properties, e.g. through photoluminescence (PL), since these
were averaged out by material heterogeneity. This is why I searched for
new approaches to study the PL of individual structures, and had the
opportunity to pursue such during my post-doctoral appointments in Paris
and in Twente in the Netherlands. The challenge in the latter group was
to measure the fluorescence of individual (bio-) molecules at room
temperature. A major breakthrough occurred through my interactions with
Carl Figdor, an immunology professor at Nijmegen university. Together,
we realised that my ultra-sensitive optical technique could be applied
in living cells. For the first time, I could see the signal coming from
bio-molecules, in vivo! This was something really new – a signal from a
living, moving entity! From that initial thrill, I became truly
fascinated with the field that I have never left since.
KvdB: Have you ever considered any of your colleagues as role models? Do you consider yourself to be a role model?
MGP:
I do not really know whether the people who have influenced me in my
career choices, starting with my father, are actually role models or
rather, inspirational figures. Unfortunately, having evolved in a very
masculine academic environment, I find no female figures among them.
When I did my Ph.D. in London, there were only two women Ph.D candidates
in the whole ten-story building! As for me giving inspiration to young
scientists, this is a great and continuous source of pride for me. It is
so extremely satisfactory to see students grow into scientific
maturity, and to be able to create the environment and the conditions
that have enabled them to do so, to modulate their inner capacities to
this end! There are many facets to this route to scientific maturity,
and I endeavour to accompany my students in every way, not only the
scientific aspects. It is important to also address things such as
emotions, fears, uncertainty, insecurity and self-confidence, to be in
dialogue with ones students. My relation with the members of my group is
thus very open. I am particularly proud of being a role model to young
female scientists.
KvdB: Did you know that you were nominated for the Emmy Noether distinction?
MGP: A
couple of my colleagues had actually suggested that I would be a good
candidate. However, from there, I was conscientiously kept out of the
loop, and to be laureate was a very happy surprise.
KvdB: You have been recognized through many prizes and awards. Is the Emmy Noether Distinction still special for you?
MGP: Yes
it is, because it does not only recognise one’s scientific career, but
also all the extra effort that one has put into promoting and empowering
women to excel in science. Through it, the European Physical Society
recognises the specific importance of empowering women and promoting
gender equity and that is very important to me.
KvdB: Have you yourself encountered any difficulties rooted in gender roles or inequity?
MGP:
Definitely, women are much more aware of their position than we were in
the day. They are much more aware of the things that they need not
accept or take for granted. When I was a student, I took the fact that I
evolved in a mainly male environment as a sort of “default” situation. I
started to feel the resistance against my career progression at the
point where I became a post-doc and then wanted to establish myself as a
young professor, and I found myself competing for grants, for papers,
for last authorship, for students. That was a tough part of my career –
unfortunately, many young women researchers still find a particular
resistance at that stage of their career today.
KvdB:
What actions do you think are most useful to help women in physics?
Which one of your actions do you see as having been the most successful?
MGP:
The problem of the position and career progression of women in physics
is a very complicated one because it has a great man inputs. You
therefore have to target many factors in parallel, something that will
probably take generations. Yet, one of the most important things is that
everyone, women and men, in the field is aware, is conscious of the
implicit gender bias that still pervades our communities today and
affects the working environment. It is the accumulation of many little
things on a daily basis that causes women to snap and leave science. I
really do believe that explicit bias is no longer the problem today. I
also think that specific training courses in secondary and soft skills
for women scientist are very important. Science is a highly competitive
business and women have to acquire the necessary assertiveness, and the
assurance to speak in public and put themselves on the front of the
stage. Mentoring is also a very important point. Like I do with my
students, it is necessary for more senior scientists to advise young women
physicists how to handle uncertain, difficult or uncomfortable
situations. On the other hand, I do not believe in positive
discrimination or quota. To me, all discrimination is negative. Rather,
as a way to avoid discrimination, I would like to recommend the creation
of specific calls for women scientists (physicists), in the same way as
calls can be targeted towards age groups, e.g. early career
researchers. In any case, one will always have to make that extra
effort, that extra little thought, to ensure that women get equal
chances at all levels, be it employment, conferences, or other.
KvdB:
COVID-19 has aggravated all that is not well in the world. What are the
difficulties related to the COVID pandemic that you or your students
encounter?
MGP: Of course. The pandemic is a
major distraction from all points of view. We have had to stop all
experiments. When we resumed, it was not the entire group that could
return. Worse, in our case we are dealing with biological reagents, to
obtain them afresh comes with major delays. 2020, however, has proved
productive as far as data analysis and paper writing is concerned. I am
afraid that the reduction of scientific productivity will be felt in
2021. More generally, we are all human so the pandemic affects us all. I
have spent much more time giving emotional support to members of our
group. Our group is very international, and many of its members went
back to their home country, without always having the possibility to
come back. To remain close to, and help our younger colleagues of the
next generation is an extremely important part of our responsibility.
Read about the EPS Emmy Noether Distinction
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EPS EOC
EPS Equal Opportunities Committee
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women in physics
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