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Fant 92 publikasjoner. Viser side 2 av 4:

Publikasjon  
År  
Kategori

Modeling the Impact of Pedestrianization on Urban Air Quality

O'Regan, Anna C.; Grythe, Henrik; Santos, Gabriela Sousa; Nyhan, Marguerite M.

2025

Agency and responsibility in smart air pollution monitoring

Ekman, Karin; Ponti, Marisa; Grau, Marc Peñalver; Castell, Nuria; Steffansen, Rasmus Nedergård; Lissandrello, Enza

2023

Automatic Correction of Non-Anechoic Antenna Measurements using Low-Pass Filters

Bekasiewicz, Adrian; Waladi, Vorya; Wojcikowski, Marek; Cao, Tuan-Vu

2023

Reconciliation of methane emissions in European national inventory reports with atmospheric measurements

Houweling, Sander; Berchet, Antoine; Brunner, Dominik; Cheliotis, Ioannis; Fenjuan, Wang; Ioannidis, Elefterios; Koch, Frank-Thomas; Lin, Hong; Maksyutov, Shamil; Meesters, Antoon; Monteil, Guillaume; Pison, Isabelle; Ren, Ge; Scholze, Marko; Sollum, Espen; Steiner, Michael; Thompson, Rona Louise; Tsuruta, Aki

2024

Observations and Retrievals of Volcanic Ash Clouds Using Ground- and Satellite-Based Sensors

Mereu, Luigi; Scollo, Simona; Bonadonna, Costanza; Corradini, Stefano; Donnadieu, Franck; Montopoli, Mario; Vulpiani, Gianfranco; Barsotti, Sara; Freret-Lorgeril, Valentin; Gudmundsson, Magnús Tumi; Kylling, Arve; Ripepe, Maurizio

2023

Quantifying subnational CO2 emissions by assimilating regional measurements in a global high-resolution inverse model

Nayagam, Lorna Raja; Maksyutov, Shamil; Oda, Tomohiro; Janardanan, Rajesh; Yoshida, Yukio; Trisolino, Pamela; Zeng, Jiye; Kaiser, Johannes; Matsunaga, Tsuneo

2024

Balancing greenhouse gas sources and sinks: Inventories, budgets, and climate policy

Canadell, Josep G.; Poulter, Benjamin; Bastos, Ana; Ciais, Philippe; Hayes, Daniel J.; Thompson, Rona Louise; Villalobos, Yohanna

2022

Deep Neural Networks for Comprehensive Environmental Noise Estimation in European Cities

Sharma, Jivitesh; Jetschny, Stefan; Maza, Miquel S.; Guardia, Nuria B.; Peris, Eulàlia; Esteve, Jaume F.

2024

Top-down approaches

Thompson, Rona Louise; Chevallier, Frédéric; Maksyutov, Shamil; Patra, Prabir K.; Bowman, Kevin

2022

Analytical techniques in metabolomics

David, Arthur; Rostkowski, Pawel

2020

Discussion on the representativeness of current methodologies to assess indoor air quality

Vogt, Matthias; Hak, Claudia; Lopez-Aparicio, Susana; Dauge, Franck Rene; Holøs, Sverre Bjørn; Yang, Aileen; Mysen, Mads

2018

Modelling the Transport Externalities of Urban Sprawl Development in Polish Cities Between 2006 and 2023

Drabicki, Arkadiusz; Lopez-Aparicio, Susana; Grythe, Henrik; Kierpiec, Urszula; Tobola, Kamila; Kud, Bartosz; Chwastek, Konrad

2025

Methane in Svalbard (SvalGaSess)

Hodson, Andrew; Kleber, Gabrielle Emma; Platt, Stephen Matthew; Kalenitchenko, Dimitri Stanislas Desire; Hengsens, Geert; Irvine-Fynn, Tristram; Senger, Kim; Tveit, Alexander Tøsdal; Øvreås, Lise; Hietbrink, Sophie ten; Hollander, Jamie; Ammerlaan, Fenna; Damm, Ellen; Römer, Miriam; Fransson, Agneta; Chierici, Melissa; Delpech, Lisa-Marie; Pirk, Norbert; Sen, Arunima; Redecker, Kelly

Methane is a powerful greenhouse gas whose emission into the atmosphere from Arctic environments is increasing in response to climate change. At present, the increase in atmospheric methane concentrations recorded at Ny-Ålesund and globally threatens the Paris Agreement goal of limiting warming to 2 degrees, preferably 1.5 degrees, by increasing the need for abatements. However, our understanding of the physical, chemical and biological processes that control methane in the Arctic are strongly biased towards just a few lowland sites that are not at all like Svalbard and other similar mountainous, ice-covered regions. Svalbard can therefore be used to better understand these locations. Svalbard’s methane stocks include vast reserves of ancient, geogenic methane trapped beneath glaciers and permafrost. This methane supplements the younger, microbial methane mostly produced in waterlogged soils and wetlands during the summer and early winter. Knowledge about the production, removal and migration of these two methane sources in Svalbard’s complex landscapes and coastal environments has grown rapidly in recent years. However, the need to exploit this knowledge to produce reliable estimates of present-day and future emissions of methane from across the Svalbard landscape is now paramount. This is because understanding these quantities is absolutely necessary when we seek to define how society must adjust in order to better manage greenhouse gases in Earth’s atmosphere

2025

Features Inspired PM2.5 Prediction: A Belfast City Case Study

Naz, Fareena; Fahim, Muhammad; Cheema, Adnan Ahmad; Nguyen, Trung Viet; Cao, Tuan-Vu; Duong, Trung Q.

2024

Mapping urban air quality using low-cost sensor networks

Schneider, Philipp; Castell, Nuria; Bartonova, Alena

2020

Fine aerosol chemical composition and sources in Europe using high time resolution instrumentation

Minguillón, M. C.; Prevot, A.S.H.; Riffault, Véronique; Favez, Olivier; Gilardoni, S.; Mocnik, G.; Platt, Stephen Matthew; Green, D; Ovadnevaite, Jurgita; Kasper-Giebl, Anne; Alastuey, A.; Marmureanu, Luminita; Eriksson, A.; Sokolovic, D.; Team, The COLOSSAL

2020

The Atmosphere Above Ny-Ålesund: Climate and Global Warming, Ozone and Surface UV Radiation

Maturilli, Marion; Hanssen-Bauer, Inger; Neuber, Roland; Rex, Markus; Edvardsen, Kåre

2019

Cyclic and Linear Siloxanes in Indoor Environments: Occurrence and Human Exposure

Cincinelli, Alessandra; Martellini, Tania; Scopetani, Costanza; Guerranti, C.; Katsoyiannis, Athanasios A.

2020

Multisensory Representation of Air Pollution in Virtual Reality: Lessons from Visual Representation

Pochwatko, Grzegorz; Swidrak, Justyna; Kopec, Wieslaw; Jedrzejewski, Zbigniew; Feledyn, Agata; Vogt, Matthias; Castell, Nuria; Zagorska, Katarzyna

The world is facing the problem of anthropogenic climate
change and air pollution. Despite many years of development, already
established methods of influencing behaviour remain ineffective. The
effect of such interventions is very often a declaration of behaviour change
that is not followed by actual action. Moreover, despite intensive informa-
tion campaigns, many people still do not have adequate knowledge on the
subject, are not aware of the problem or, worse, deny its existence. Pre-
vious attempts to introduce real change were based on providing infor-
mation, persuasion or visualisation. We propose the use of multi-sensory
virtual reality to investigate the problem more thoroughly and then design
appropriate solutions. In this paper, we introduce a new immersive virtual
environment that combines free exploration with a high level of experi-
mental control, physiological and behavioural measures. It was created on
the basis of transdisciplinary scientific cooperation, participatory design
and research. We used the unique features of virtual environments to
reverse and expand the idea of pollution pods by Pinsky. Instead of closing
participants in small domes filled with chemical substances imitating pol-
lution, we made it possible for them to freely explore an open environment
- admiring the panorama of a small town from the observation deck located
on a nearby hill. Virtual reality technology enables the manipulation of
representations of air pollution, the sensory modalities with which they are
transmitted (visual, auditory, tactile and smell stimuli) and their intensity.
Participants’ reactions from the initial tests of the application showed that
it is a promising solution. We present the possibilities of applying the new
solution in psychological research and its further design and development
opportunities in collaboration with communities and other stakeholders
in the spirit of citizen science.

2022

The impact of the epoxy thin-film layer for microwave-based gas sensors working at high relative humidity levels

Grochala, Dominik; Paleczek, Anna; Kocoñ, Mateusz; Dudzik, Maciej; Blajszczak, Lukasz; Staszek, Kamil; Wojcikowski, Marek; Cao, Tuan-Vu; Rydosz, Artur

2024

Towards an integrated data-driven infrastructure (InfraNor)

Denkmann, Rudolf; Aas, Wenche; Pedersen, Åshild Ønvik; Berge, Jørgen; Storvold, Rune; Godøy, Øystein; Isaksen, Kjetil; Fjæraa, Ann Mari; Gulbrandsen, Njål; Christiansen, Hanne H; Gallet, Jean-Charles; Mevold, Kjetil; Malnes, Eirik; Ravolainen, Virve; Schuler, Thomas; Tømmervik, Hans; Nilsen, Frank; Fer, Ilker; Sivertsen, Agnar Holten; Jawak, Shridhar Digambar; Lihavainen, Heikki

The Arctic is warming almost four times faster
compared to the rest of the world (Rantanen et al.
2022). Svalbard and its surroundings have warmed
faster than most of the Arctic (Cai et al. 2021;
Isaksen et al. 2022). The Svalbard archipelago also
shows large temperature variations from south
to north and east to west (Østby et al. 2017).
Svalbard has good infrastructure, logistics and
communications (airport, port, laboratories), and
excellent possibilities for data transfer. This makes
Svalbard and its surroundings an attractive living
natural laboratory for long-term and campaign-
based Arctic studies.
Svalbard Integrated Arctic Earth Observing System
(SIOS) is a Norwegian-initiated international
cooperation to exploit Svalbard’s research
infrastructure for the purpose of increasing
knowledge about global climate and environmental
c h a n g e s t h ro u g h l o n g - t e r m m o n i t o r i n g
(Christiansen et al. 2024). It currently includes 29
member institutions from 10 different countries
with a research focus relevant to interdisciplinary
earth system studies in and around Svalbard. These
studies explore the complex interrelationships
between ocean currents, atmospheric and
geological conditions, the extent of ice and snow,
and terrestrial food webs of plants and animals.
Within SIOS, researchers collaborate by sharing and
integrating data and research infrastructure to build
an efficient observing system that focuses on long-
term monitoring of parameters that are important
for understanding the Arctic in the context of global
environmental change.
The research infrastructures1 in Svalbard have
mainly been established as independent activities
by projects or research stations. The existing
environmental monitoring and observation
infrastructures in Svalbard are generally maintained
at a high standard and are state-of-the-art.
While the individual observations and research
infrastructures might be of good quality, they
are not optimised and the gathered data are not
harmonised, except for e.g., in COAT (Pedersen
et al 2025). SIOS utilises existing infrastructure,
as well as new infrastructure, instigated by
considerations and deliberations of the working
groups coordinated by the central hub, SIOS-
Knowledge Centre.
SIOS-InfraNor is a regional distributed observing
system utilising versatile infrastructure from in situ
to satellite remote sensing observations (Figure 1).
The project, funded jointly by the Research Council
of Norway and the Norwegian Space Agency
(NoSA), strengthens SIOS with a coordinated and
state-of-the-art observation network for marine,
terrestrial and atmospheric research. This network,
which provides data in accordance with the FAIR
principles (Wikinson et al. 2016), is implemented
and operated in and around Svalbard. The InfraNor
project, as a prioritised infrastructure initiative
identified through a gap analysis study, provides
new and upgraded research facilities to support
addressing Earth System Science (ESS) questions
on global environment change. SIOS offers a single
point of access to infrastructure, data, tools and
services owned or operated by its members.
InfraNor is a response to the ongoing effort to
optimise the SIOS observing system. This effort
builds on the SIOS Strategy for Optimisation,
and draws on work conducted through the SIOS
Science Optimisation Service2 (as described in
the SIOS current state document3). The focus
is on observational measurements to address
regional issues and offer an opportunity for much
more comprehensive monitoring of ESS-relevant
variables throughout the region as articulated in
the SIOS Infrastructure Optimisation Report4. The
report targets vertical and horizontal interactions,
cryosphere–geosphere dynamics, and climate
change impacts on biodiversity and ecosystems.

2025

Review on the methodology supporting the health impact assessment by the European Environment Agency

Soares, Joana; Gsella, Artur; Horálek, Jan; Guerreiro, Cristina; Ortiz, Alberto González

2020

Publikasjon
År
Kategori