Another project with Weave-UNISONO funding

Mon, 04/07/2025 - 16:00
Kod CSS i JS

Dr Mateusz Łełyk from the University of Warsaw, alongside researchers from Poland and Austria, will carry out a research project under Weave-UNISONO. He will receive over 1.6 million zlotys for his research.

Dr Mateusz Łełyk with Dr techn. Dino Rossegger from the Vienna University of Technology as the principal investigator of the Austrian research team, will carry out the project “Structural complexity measures for foundational theories”. They will try to answer the question of when foundational theories can represent intended models and what it is caused by. They will also analyse the properties of “unintended” models and how they can be distinguished from the intended models. For this purpose, they will apply the Scott analysis which has been hardly used to analyse foundational theories. The researchers predict that an interesting “byproduct” can be delivered - new models of first-order logic, such as the simplest model property that will give intuitive and meaningful means for classifying foundational theories.

The proposal was evaluated by the Austrian Science Fund (FWF) and the evaluation results were approved by the National Science Centre under the Weave collaboration.

Weave-UNISONO and Lead Agency Procedure

Weave-UNISONO is a result of multilateral cooperation between the research-funding agencies associated in Science Europe and aims at simplifying the submission and selection procedures in all academic disciplines, involving researchers from two or three European countries.

The winning applicants are selected pursuant to the Lead Agency Procedure according to which one partner institution performs a complete merit-based evaluation of proposals, the results of which are subsequently approved by the other partners.

Under the Weave Programme, partner research teams apply for parallel funding to the Lead Agency and their respective institutions participating in the programme. Joint research projects must include a coherent research program with the added value of the international cooperation. 

Weave-UNISONO is carried out on an ongoing basis. Research teams intending to cooperate with partners from Austria, Czechia, Slovenia, Switzerland, Germany, Luxembourg and Belgium-Flanders are urged to read the call text and apply for funding.

Digital aestheticization of fragile environments

Principal Investigator :
Dr hab. Marcin Brocki
Jagiellonian University

Panel: HS3

Funding scheme : CHANSE
announced on 9 March 2021

The “Digital Aestheticization of Fragile Environments” (DigiFREN) project aims to understand the effects of the digital aestheticization of natural environments in five European countries. Historical and ethnographic research has focused on how digital media and technology contribute to changing and transforming perceptions, sensitivities and practices related to natural environments. DigiFREN focuses on the digital aestheticization of environments vulnerable to human intervention, its development and impact on everyday life in the Slovenian Alpine regions of Solcavsko and Bohinj, along the Croatian Adriatic coast in the Kornati and Paklenica National Parks, in the Finnish peatlands of Sodankyla and Lieksa, in the Norwegian urban forest of Sormarka and in the Odra Valley in Lower Silesia in Poland. DigiFREN is the first ethnographic project to undertake a large-scale, comparative study of digital aestheticization’s impact on the perception of and interaction with natural environments in a digitally transforming Europe.

In recent years, the Odra Valley has become a place of attractive tourist infrastructure development, intensively promoted and transformed into a product of the entertainment and tourism industry, a place of recreation supported by a specific semiosphere (a space in which the production and exchange of meanings through signs takes place), with digitised images of nature as a key component. “Digital aestheticizations of nature” are both part of the “nature” prepared for the tourism industry, the content of social media posts, as well as a part of broader processes of deterritorialization of “nature” images and its new, bottom-up categorisation.

Dr hab. Marcin Brocki, photo by Łukasz Bera Dr hab. Marcin Brocki, photo by Łukasz Bera For this reason, it has become important to reconstruct which places in the Odra Valley are perceived as representations of “nature” by both stakeholders and “users”, what cultural semantic networks they form, what becomes a sign of nature in digitised images of nature, how the semiosis (meaning-making process) of nature within digital media influences the experience of nature, and what aesthetic categories are used and how they are transformed in contact with the practices and experiences of digitally aestheticized places.

To achieve these objectives, ethnographic research was conducted, including intensive field research. The project is carried out using digital ethnography, autoethnography, participatory observation, discourse analysis and participatory methods and techniques. Photo-elicitation and “research walks”, which were based on the methods of “walking with”, “following” a field research partner, with the active use of photography and video research, have become particularly important research methods, focusing on the material, aesthetic, economic and political dimensions of the landscape. The walks and photo-elicitation build a kind of living, visual (digital) archive in which experiences, practices and perceptions of the landscape intersect to create its “emotional maps.”

The research primarily focuses on three categories of social actors: "local experts" (ecologists, enthusiasts), stakeholders (government and local administration bodies involved in water management and spatial planning, urban planners, tourism agencies, environmental organisations formally responsible for nature and landscape protection), residents of riverside areas and users of these areas (tourists, anglers, etc.). Research methods were carefully selected for each of these groups. The analysis also included fan pages, blogs, and social media related to the Odra Valley, with particular attention given to content featuring visualisations, podcasts, and videos.

Analysis of the visual material revealed different interests (developers vs. environmentalists), intersecting aesthetics, tensions between these interests and aesthetics, and different levels of aestheticization in digital images of the Odra River. On a broader level, it also provided an insight into the historical transformation brought about by digital technologies in the way humans interact with nature.

Project title: Digital Aestheticization in/of Fragile Environments

Dr hab. Marcin Brocki

Kierownik - dodatkowe informacje

Dr hab. Marcin Brocki is a professor at the Jagiellonian University in Krakow. His research interests focus on anthropological theory and methodology, semiotics, issues related to Poland’s post-socialist transformation and the anthropology of the body, but in his writings he has also focused on topics such as the social construction of the landscape or participatory research. He has conducted field research in Poland and Zimbabwe (as part of the UNDP programme). 

Dr hab. Marcin Brocki, photo by Łukasz Bera

Shape and displacement optimization of gold nanorods

Principal Investigator :
Dr inż. Paweł Ziółkowski
Gdańsk University of Technology

Panel: ST8

Funding scheme : SONATA 17
announced on 15 September 2021

Energy conversion is the process of changing energy from one form to another, and this is the main focus of the Laboratory for the Conversion of Electromagnetic Energy into Heat at the Institute of Energy, Gdańsk University of Technology. Energy conversion, due to its wide range of applications, takes places in our daily life but we rarely consider the significance of its various forms. In the nanoHEATgold project: “Shape and displacement optimization of gold nanorods in the killing chamber for the purposes of photothermoablation processes” we use the energy stored in electromagnetic spectrum (electromagnetic waves) to convert it into useful heat. To this end, we use specially tailored nanoparticles, which we feed into a dedicated chamber. Nanotechnology, including nanoparticles applications, creates new possibilities for scientific development.  Gold nanorods are particularly favourable for their stability, biocompatibility and efficiency in photothermoablation. The use of lasers is also of utmost importance in the ongoing work, as it allows us to produce optical radiation of a specific wavelength, power and other parameters to irradiate the nanoparticles.

Dr inż. Paweł Ziółkowski, photo by Łukasz BeraDr inż. Paweł Ziółkowski, photo by Łukasz Bera The aim of the nanoHEATgold project is to study the heat and mass exchange process in various size chambers containing the target bacteria or viruses which would be subjected to photothermoablation using densely distributed gold nanoparticles in the shape of nanowires. The main task is to optimize the shape of the nanoparticles and the chamber alone in order to maximize the temperature and thus inactivate as many bacteria or viruses as possible. This happens  once a certain limiting temperature is reached in the chamber, which is why it is important to combine two methods: experimental and numerical, to confirm the mode of the heat and mass transfer. Simplicity is the main advantage of the method, as it only involves the creation of a measurement and calculation system and analysis of the temperature field in the area under study. An important scientific goal is to develop appropriate mathematical models that correctly represent the behaviour of electromagnetic waves with gold nanostructures, in order to reflect the heat transfer to the environment and further to the entire germicidal chamber.

Laser beam irradiation and its interaction with gold nanoparticles also allows for biological or even medical application in the treatment of various unusual organs (e.g., point tumours in the blood or internal organs (pancreas, liver)). Consultations and cooperation of medical application has been conducted with the Medical University of Gdańsk. The project allowed us to design experiments based on the measurement of temperature distribution on a selected surface, using a thermal imaging camera calibrated to appropriate temperatures. Several systems were tested by stabilized gold nanowires applied on laboratory glassware or directly on the germicidal chamber. A similar experiment was carried out in cooperation with La Sapienza University of Rome, resulting in scientific publications, including a comparison of measurements in the micrometer chamber with numerical analysis. The most important project result is the creation of a new laboratory at the Institute of Energy of the Faculty of Mechanical Engineering and Ship Technology of the Gdańsk University of Technology and new insights supported by valuable publications. An important achievement of the project is that it makes it possible to relate the influence of nanoscale parameters, such as the size and shape of nanoparticles, to macroscopic effects, the temperature field, and thus creates a potential to be used in the future.

Project title: Shape and displacement optimization of gold nanorods in the killing chamber in order to phototermoablation processes

Dr inż. Paweł Ziółkowski

Kierownik - dodatkowe informacje

Graduated from the Faculty of Mechanical Engineering at the Gdańsk University of Technology, where he has been employed since 2018. Between 2011 and 2023, worked at the Institute of Fluid-Flow Machinery of the Polish Academy of Sciences, where he defended his PhD in 2018. In 2015 and 2022, research internships at LEMTA in France and NTNU in Norway, respectively. Author of over 100 publications in Scopus. Involved in modelling of thermodynamic cycles and phenomena concerning diverse forms of energy conversion.

Dr inż. Paweł Ziółkowski, photo by Łukasz Bera

Measuring visual and non-visual effects of light on people in the built environment

Principal Investigator :
Dr Eng. Arch., Dipl.-Ing. Arch. [FH] Karolina M. Zielinska-Dabkowska IALD, IES, RIBA
Gdańsk University of Technology

Panel: NZ6

Funding scheme : MINIATURA 4
announced on 1 June 2020

In 2001, scientists discovered a new type of specialised cell in the human eye, different from other photoreceptors (rods and cones): intrinsically photosensitive retinal ganglion cells (ipRGC). This confirmed that apart from being necessary for normal visual perception, light is also responsible for various non-visual functions; it plays a key role in activating the circadian clock and has a range of important biological effects essential for human health, productivity and well-being. These effects depend on its wavelength (ipRGCs, which contain the photoreceptor protein melanopsin, absorb blue light with wavelengths of c. 460–480 nm), but also on its intensity, quantity and duration. These findings also provided new insights into the importance of daytime exposure to natural light, as well as the biological need for darkness in the evening and at night. Recent advances in semiconductor light technologies, with light sources such as LEDs, and their increasing availability have dramatically changed how architects, designers and lay people illuminate their interiors and outdoor spaces. Unfortunately, new studies confirm that the commonly used white LED light sources, which also emit high levels of blue light wavelength, are inappropriate and even harmful. In line with current guidelines regarding public health and environmental hazards, new LED light sources should not be put on the market without prior, thorough research that allows observation and understanding not only of the technical aspects of these new technologies, such as energy economy and efficiency, but also their impact on human health and the environment. This crucial process has been neglected. To date, little basic research, be it theoretical or experimental, has been done to generate insights that could guide decisions aimed at minimising the harm done by this phenomenon[1].

Karolina Zielińska-Dąbkowska, photo by Łukasz BeraKarolina Zielińska-Dąbkowska, photo by Łukasz Bera This research project, carried out at the KTH Royal Institute of Technology, School of Architecture, Division of Lighting Design in Sweden, allowed the most suitable metrics and lighting methods to determine the light environment appropriate for human habitation and minimise the negative impacts of artificial light to be identified. Following an analysis of multiple new indicators, melanopic equivalent daytime illuminance (melanopic EDI) (D65) at eye level was determined to be the most suitable.

In addition, the project identified the best criteria for selecting the technical parameters for artificial lighting design, such as spectral power distribution (SPD), intensity and two flicker metrics. Parameters such as correlated colour temperature (CCT) and colour rendering index (CRI) proved irrelevant. Moreover, we tested tools such as the CIE α-opic Toolbox (the open access online tool that allows the effective radiation intensity for all photoreceptors, ipRGCs, rods and cones to be calculated, which in turn implies circadian, neuroendocrine and neurobehavioural effects). The values of the melanopic equivalent illuminance and equivalent daytime illuminance inform the designer how effectively a given source of light inhibits the production of the sleep hormone, melatonin. Higher values are beneficial for daytime scenarios and encourage activity, while lower values are recommended for nighttime scenarios and before sleep.

In this context, the discovery represents an original contribution to a research-based and analytical approach that can foster a more health-conscious design of interior lighting in spaces intended for long-term use, such as offices, schools or hospitals. The knowledge can also be applied to outdoor lighting design. It is also an original, analytical contribution to the global state of research in this field. It should be of particular relevance to the countries of Northern Europe, where artificial light is used for many months each year because of the insufficient presence of natural daylight.

The findings were outlined in a paper entitled “Reducing nighttime light exposure in the urban environment to benefit human health and society” published in the prestigious “Science” journal, of which I am the first and corresponding author. DOI: 10.1126/science.adg5277

 

[1] Dodd N., Donatello S., McLean N., Casey C. i Protzman B., 2021. Level(s) indicator 4.3: Lighting and Visual Comfort user manual: introductory briefing, instructions and guidance (publication version 1.1)


Read also an interview with Karolina Zielińska-Dąbkowska - "Keeping light under control"


Project title: Identification and evaluation of measurable parameters of visual and non-visual effects of light

Dr Eng. Arch., Dipl.-Ing. Arch. [FH] Karolina M. Zielinska-Dabkowska IALD, IES, RIBA

Kierownik - dodatkowe informacje

In 2013, she earned her PhD degree (with distinction) in architecture and urban planning at the Gdańsk University of Technology; in 2014, her PhD dissertation also won the Polish Prime Minister’s Award. Following several years spent working abroad as a lighting architect, she returned to Poland in 2018 to work as an Assistant Professor at the Faculty of Architecture of the Gdańsk University of Technology and the co-founder and co-director of the GUT LightLab, where she studies different aspects of natural and artificial light in the built environment. As of 2019, she also heads ILLUME, an interdisciplinary, interfaculty research group established in order to minimise the impact of artificial light pollution on people, fauna and flora. The group has won a grant under Horizon Europe (2024-2027), in which she serves as the principal co-investigator. Her research has been outlined in scientific articles published in international research journals such as Nature Journal, Science and Nature Scientific Reports, and in 2015, her research into the non-visual effects of light on people, fauna and flora earned her the PLD-R Professional Lighting Design Recognition Award for "Research". In 2020, she also received the international IDA Galileo Research Award.

Karolina Zielińska-Dąbkowska, photo by Łukasz Bera

Workshops to define priority areas for a greener, inclusive and more resilient Europe with the participation of Polish stakeholders

Fri, 03/28/2025 - 12:30
Kod CSS i JS

On Tuesday, April 1st, the workshop “Connecting Research and Policy for a Greener, Inclusive and More Resilient Europe” will be held in Warsaw, at the Institute of Fundamental Technological Research, Polish Academy of Sciences, to define priority areas for a greener, inclusive and more resilient Europe. Workshop participants will include the representatives of the Polish academic community as well as ministries, non-governmental organisations and business. The workshop is organised by the National Science Centre and the Research Council of Norway (RCN).

Meetings will be divided into three subject areas:

  • European Green Transition; 
  • Democracy, Rule of Law, Human Rights; 
  • Social Inclusion and Resilience.

We will keep you posted on the outcome.

The workshop organised under the EEA and Norway Grants 2014-2021 is aligned with the strategic goals of the new European Partnership for Social Transformations and Resilience (STR) developed by the EU Member States and coordinated by the National Science Centre. Partnership activities will start in 2027.

The STR Partnership will organise calls for transnational research projects in social sciences and humanities to address  social challenges in the light of changes in climate and environment, technology, demography, and unexpected shocks, such as war or pandemic. The Partnership will also aim to support evidence based policymaking in four major impact areas:

  • Supporting the modernisation of social protection systems and essential services
  • Shaping the future of work
  • Fostering education and skills development
  • Contributing to a fair transition towards climate neutrality

Please follow the STE Partnership on the Chanse website and NCN website (International cooperation – STR Partnership).

Weave-UNISONO grant for Polish-Swiss research projects

Wed, 03/26/2025 - 10:30
Kod CSS i JS

Weave-UNISONO grant will feed into two research projects performed by researchers from Poland and Switzerland. They will analyse discussions on generative AI on social media platforms and conduct research leading to more personalised radiotherapy method of cancer treatment.

Dr hab. Marcin Koszowy from the Warsaw University of Technology, together with Swiss researchers from the Universita della Svizzera italiana, will conduct the project: “Reasons of the others: concession and counterargument in polylogues”. The researchers will investigate patterns of concession and counterargument (CO(u)N patterns) in discussions of Generative AI and LLMs on social media platforms.

Dr hab. Antoni Ruciński from the Institute of Nuclear Physics, Polish Academy of Sciences, alongside the Swiss researchers from the University of Zurich, will conduct research leading to more effective and personalised proton radiotherapy method of cancer treatments. The researchers will seek to apply a new approach to incorporate nanoscale calculations into the treatment planning process and validate them experimentally. This approach will allow for more precise predictions of how radiation affects cancer and normal tissue cells during radiotherapy, thus improving treatment planning methods and allowing for a highly precise delivery of radiation.

Proposals submitted to Weave-UNISONO were evaluated by the Swiss National Science Foundation (SNSF) and the evaluation results were approved by the National Science Centre under the Weave collaboration. 

Weave-UNISONO Ranking List

Weave-UNISONO 2024, list no. 10

Weave-UNISONO is launched under the Weave Programme within the framework of multilateral cooperation between research funding agencies associated in Science Europe. The programme aims to simplify the submission and selection procedure of research proposals in all academic disciplines, involving researchers from two or three European countries.

The selection process relies on the Lead Agency Procedure (LAP) according to which a full merit-based evaluation is performed by one partner institution, whilst the other partners approve its results.

Under the Weave programme, partner research teams submit their funding proposals to the lead agency as well as their respective research-funding agencies. Joint proposals must include a coherent research programme and identify the added value of international cooperation.

Weave-UNISONO is carried out on an ongoing basis. Research teams intending to cooperate with partners from Austria, Czechia, Slovenia, Switzerland, Germany, Luxembourg and Belgium-Flanders are encouraged to read the call text and submit their funding proposals

Keeping light under control

Thu, 03/20/2025 - 15:00
Kod CSS i JS

Poland is one of the countries with the fastest growing light pollution in Europe. As much as 20 per cent of the country's population lives in areas where the night sky is so bright that human eye remains in daytime vision mode around the clock. This problem affects us all, although most of us are not aware of it.

Electric light pollution is the term used to describe all the negative effects of excessive night-time exposure to artificial lighting on humans and the environment. Exposure to light at night, among other things, puts strain on the visual system, disrupts the circadian rhythm, inhibits melatonin secretion, and impairs sleep quality. A growing body of research also points to an increased risk of chronic diseases associated with prolonged exposure to artificial lighting at night, although knowledge in this area is still developing. Electric light at night also has an impact on ecosystems – by disorienting wildlife, disrupting migrations, interfering with plant life cycles, and undermining biodiversity.

Prof. Karolina Zielińska-DąbkowskaProf. Karolina Zielińska-Dąbkowska Dr hab. inż. arch. Karolina Zielińska-Dąbkowska is an architect and lighting designer and a professor at Gdańsk University of Technology; she studies the impact of artificial light on health and the environment. She has worked in Berlin, London, New York, and Zurich, participating in illumination projects such as the Burj Khalifa in Dubai, the Tribute in Light Memorial in New York and the illumination of the new Planetarium for the Royal Observatory, Greenwich. She is a member of the prestigious Royal Institute of British Architects (RIBA) and the sole representative of Poland to hold the status of professional member in the International Association of Lighting Designers (IALD).

After nearly 20 years of working abroad, she returned to Poland. Earlier, she had completed her PhD here as an external candidate, earning the Prime Minister’s Award for her dissertation. She represents two worlds – researchers and practitioners. She says she can translate the findings of researchers into a language that lighting designers can understand while also identifying problems that researchers may overlook.

Her articles have appeared in Science and Nature, among others, and a publication in Science was the result of the MINIATURA project funded by NCN. She is currently co-directing an international project PLAN-B as part of Horizon Europe, which aims to develop solutions to reduce noise and light pollution – two key threats to ecosystems and biodiversity in Europe.

Interview with Prof. Karolina Zielińska-Dąbkowska on light pollution, by Anna Korzekwa-Józefowicz.

Light that (doesn't) serve us

Anna Korzekwa-Józefowicz: Is there such a thing as good artificial light that is friendly to human health and the environment?

Karolina Zielińska-Dąbkowska: Since the invention of the electric light bulb, the industry has continuously offered us new solutions, promoting them as healthy, although they are not necessarily so.

For thousands of years, the human body has adapted to the cycle of day and night, with sunlight regulating key biological processes. There is not – and probably never will be – artificial lighting that fully replicates the properties of natural light. Its wavelengths change throughout the day: warm, reddish tones dominate at sunrise, around noon, the spectrum becomes richer in blue light wavelenghts, and in the evening at sunset warm colours predominate again.

Research into the spectrum of different light sources has shown that, paradoxically, one of the healthiest options was the traditional incandescent light bulb. It emitted a warm, continuous spectrum of white light, similar in tone to sunset, with a small amount of blue light wavelenths. Its disadvantage, however, was its low energy efficiency – it only converted about 10% of its energy into usful light and the rest into heat.

Compact fluorescent lamps, known as energy-saving light bulbs, which were used until recently, contained mercury, in liquid and vapour form, posing a risk to both human health and the environment. Many people threw them in the regular rubbish and, when broken down in landfills, the mercury leaked into the environment. It is only relatively recently that we have begun to recognise the scale of this problem.

Traditional incandescent light bulbs are no longer sold in the European Union, and the production of fluorescent lamps is also being phased out. LEDs are commonly used. Is this not a good solution?

LEDs are energy efficient and have revolutionised the lighting industry – they are now the most commonly used source of white light. However, the use of LED light requires awareness and responsibility.

Not everyone realises that the light we perceive as white actually comes from a blue LED coated with a layer of luminofor – usually phosphorus. It was the invention of white light from blue LEDs that enabled the development of this technology, for which three Japanese scientists were awarded the Nobel Prize in 2014.

Until the end of the 20th century, it was believed that there were only two types of photoreceptors in the human eye: cones, responsible for colour vision, and rods, enabling vision in low light. In the early 2000s, however, a third type was discovered – intrinsically photosensitive retinal ganglion cells (ipRGCs). These are particularly sensitive to wavelengths of around 480 nanometres, i.e. just blue light.

Depending on the thickness of the phosphor layer, LED light may appear warmer or cooler, but regardless of its colour, our eyes still register wavelengths between 460 and 500 nanometres. They are characteristic of daylight with a cloudless sky at midday, which has a significant impact on the human body.

Is the body sending us a signal to take action?

Yes, because blue light stimulates the production of cortisol – the activity hormone. Therefore, exposure to LEDs in the evening and at night can disrupt circadian rhythms, making it difficult to fall asleep and reducing melatonin secretion. This can interfere with natural biological processes and lead to long-term health consequences.

But the effects of artificial light are not only felt by people. Even warm LED light, which seems more friendly to us, can disturb other organisms. Trees exposed to such electric light at night do not shed their leaves for the winter, disrupting their growth cycle – when frosts come, the freezing sap can damage their tissues and lead to death. Fireflies lose their ability to find each other because their natural light signals are drowned out by the intense glow of electriclighting, making it difficult for them to reproduce. Migratory birds mistake the LED light for stars, which they use for navigation, and as a result, many die by crashing into building windows. Many cities in the United States have therefore begun to turn off or reduce night lighting during bird migration to reduce these losses.

Can't LEDs be modified to make their light more natural and healthier?

LED technologies are based on electronics. To replicate the daylight spectrum, it would require wavelengths that are naturally present in sunlight such as near-infrared and infrared. The latter makes us feel the warmth on our skin during the day and helps counteract the harmful impact of UV radiation on our eyes. However, if we tried to add it to LED lighting, it would cause the electronics to overheat. Therefore, there is no chance of implementing such a solution 100 per cent.

Poland today is where France was 30 years ago.

In that case, how can we reduce the negative effects of artificial lighting on people and the environment?

There are guidelines for designers to help reduce light pollution. One example is The ROLAN Manifesto, developed by the ILLUME research group, which I lead at Gdańsk University of Technology, in collaboration with the International Dark-Sky Association and other international organisations active in the field of electric lighting. The document outlines 10 rules for responsible use of light at night. Above all, light should only be used where it is really needed, with appropriate brightness and colour, directed properly, and controlled in terms of timing and duration.

Of course, not everything can be changed immediately, as there is often a lot of money involved. If, for example, the city has already made a decision without prior consultation and invested in cold LEDs, they will likely remain in place for the next ten years or even longer – no one will have the budget to replace them immediately.

Just a few years ago, I lived near green spaces. Then a new street was built right outside my window. There’s hardly any traffic at night, but a dozen street lamps shine straight into my bedroom windows. What can be done in such a situation?

Smart lighting control systems using motion sensors can be implemented. In practice, this means that light intensity in residential areas can be automatically reduced, e.g. to 20% during the night hours. When movement is detected, such as a car, pedestrian or cyclist, the sensors detect the presence and gradually increase the light intensity. When the traffic stops, the system dims it again. Other options include, for example, switching off some street luminaires during certain hours. Additionally, glare shields can be designed on the street luminaire, in which case the light beam is directed away from the windows.

It is not only street lighting that is responsible for excess light in cities.

Obviously, if the street luminaires on lamp posts are not directed downwards, the light spreads above the horizon line, contributing to the creation of an urban glow. But there are other major culprits as well. These include illuminated advertisements, which are often mounted vertically, as well as decorative building lighting, and the lighting of sports facilities or events. In Poland, solutions that were popular in France in the 1980s and 1990s are still being used, i.e. so-called flood lighting, where reflectors placed at the bottom direct the light upwards or at an angle.

Decorative lighting can theoretically be switched off, but it all depends on how it was originally designed. If an electrical engineer or professional lighting designer was in charge of the project, they might have persuaded the developer to implement appropriate solutions – for example, wiring that allows independent control of individual groups of luminaires. In that case, the lights can be switched off as needed.

Unfortunately, in many places lighting systems only operate in 'on/off' mode, with the only control being an outdoor dusk sensor that automatically activates the lighting when darkness falls. Of course, more advanced light intensity control systems can be implemented, but that comes with additional costs and there are other priorities in many places.

In February, the city of Krakow adopted a resolution limiting noise at night, which is expected to significantly improve the quality of life for residents. Similar regulations are in place in Gdańsk and Poznań. Could the next step be measures to reduce light pollution? Are there any good examples to follow?

The problem of light pollution is still not taken seriously enough in our country. And the bigger the city, the more difficult it is to implement changes. In smaller towns, it’s much easier.

A good example is the municipality of Jeleśnia, specifically the village of Sopotnia Wielka – the only place in Poland to hold the international Dark Sky Community certification, awarded by the Dark Sky International organisation. Residents have been actively involved in protecting the dark sky, resulting in switchable street lighting directed downwards with the option to switch it off when needed. The lighting of the church façade and private properties was also modernised, reducing upward light emissions. As a result, Sopotnia Wielka has become a place well-suited for astronomical observations – both amateur and professional. This is the result of years of work and a conscious approach to lighting management.

But overall, it seems to me that in Poland, if something is not a statutory obligation, not many people feel the need to deal with it. Why do this when there is no requirement to do so?

This issue is not regulated by law?

In environmental law, the problem does not exist at all. There are no comprehensive strategies or so-called lighting masterplans that specify where electric light should be reduced and where more light is allowed. This includes national parks, landscape parks and Natura 2000 areas, which should receive special protection.

One often hears about huge advertisements shining directly into people's windows and there is little residents can do about it. There is only a general mention in the building regulations of permissible light emission levels, but when it comes to moving advertisements, there aren’t even affordable, widely available tools to accurately measure them. There are also no legally defined levels of vertical light intensity – there are only non-binding recommendations in the Polish Lighting Standard.

Letters to the Ombudsman

If there is a lack of statutory solutions, who protects the dark sky?

People are writing complaints to the Ombudsman. The Ombudsman addressed the Ministers of Environment and Health to intervene, but their response was unequivocal – “this is not our problem.” Last year there was also a large interdisciplinary seminar organised by the Ombudsman's office, which I attended as a speaker.

In addition, the issue is virtually non-existent in the public debate and there is a lack of understanding at national level. This may change, however, as several research projects on artificial light pollution have recently been launched within the European Union. I myself won and am co-leading one of them – its aim is to develop guidelines for cities to reduce light and noise emissions, taking into account their impact on biodiversity and ecosystems.

So, regulations will sooner or later be introduced at EU level and Poland will have to adapt to them – first in national and then in local regulations.

If there are interventions addressed by the Ombudsman, I understand that at least some of us are aware of the consequences of using excessive lighting.

Public awareness of this issue is certainly growing. A good example is the situation in Gdańsk on Góra Gradowa, a scenic viewpoint surrounded by greenery and home to bats, where amateur astronomers can still observe the night sky.

Some time ago, there was a proposal to create an Illumination Park there – a space with intense lighting, which was to have an educational function and attract tourists. Residents, aware of the negative effects of excessive light, began to protest. Public consultations were organised, involving biologists and a well-known bat expert from the Tricity area.

Thanks to this mobilisation, the issue gained such publicity that the city council members got involved and the project was put on hold. This is an example of how public pressure can influence government decisions, especially when the issue gains media attention and experts get involved.

What we need is greater awareness

Which areas should be especially protected from light pollution?

I dream of a future where every city is required to have an urban lighting masterplan. Such a plan would clearly define how lighting should be designed in urban spaces. When a building permit application is submitted, it would be possible to check whether, for example, a large, illuminated advertisement is close to a valuable natural area or residential zone.

The second thing is the protection of ecologically valuable areas, such as Natura 2000 sites, to preserve the habitats of plant and animal species that are particularly important to the European Union. In many countries these areas are of great importance, but in Poland their significance is still not widely understood. In Gdańsk, one of the sites we are investigating as part of the EU grant is the Wisłoujście Fortress. It is a historic fortification, but it is also a place where bats, including one very rare, endangered species, have been wintering for centuries. Light has a huge impact on it.

And now imagine that, despite the fact that Wisłoujście Fortress is a Natura 2000 site, an electronic music festival is held there every year – right during the bats’ mating season. Noise, light – everything that harms them. Not to mention that it also disturbs the local residents. And yet no one seems to care.

I wish there were greater awareness – not only among residents or local communities, but also among officials. So that they wouldn’t respond to these issues with irritation: “Oh no, another problem, now they’re bothered by the lights!”, but they actually listened to the arguments for, for instance, changing the dates of mass events so that they do not disturb the rhythms of nature. Every time I give an interview, or an article is published, I then read comments like: “Let's turn off all the lights, let’s go back to the Middle Ages!”

But it's not about complete darkness, it's about smart light management.

You mentioned that solutions will probably come from the European Union. What does the situation look like in other countries right now?

Some countries introduced effective regulations a long time ago. One of the first was Slovenia, where a very strict law limiting electric light pollution has been in force since 2007. In France, for example, regulations introduced in 2018 require office lighting to be switched off at specific evening hours, and place limits on street lighting and building advertisements. Of course, there are exceptions, such as the tourist centre of Paris, but in general these rules are respected.

German cities, compared to Poland, are much darker – street lighting levels are more strictly controlled.

Importantly, the intensity levels of outdoor lighting are not directly regulated by law but rather follow the recommendations of the International Commission on Illumination (CIE), which are later incorporated into lighting standards. However, it is worth emphasising that these standards are often only recommendations and not binding law.

Unfortunately, at European level, lighting standards are still often created mainly by representatives of the industry itself, which tends to favour corporate interests. Researchers dealing with this issue have limited influence, as they don’t have the same resources as large corporations.

More responsible design

Prof. Karolina Zielińska-DąbkowskaProf. Karolina Zielińska-Dąbkowska You’ve worked on projects such as the illumination of the Burj Khalifa in Dubai. An impressive building, but not exactly one associated with a responsible approach to lighting.

Back then, I didn’t think about light in this way at all. The office where I was working at the time in New York, Fisher Marantz Stone Partners, one of the two oldest and most prestigious lighting design studios in the world, was responsible for the exterior and interior lighting of the Burj Khalifa. The whole team worked on it, not just me.

It was permanent lighting, which is less problematic due to the types of light sources used, they were not LEDs. Of course, the light was directed upwards, but it worked in phases and lighting scenes, so it wasn’t constant – it was dimmed and had a definite rhythm. However, we were not involved in an event lighting project, i.e. one with dynamic lighting effects resembling fireworks – another studio from the UK was responsible for this.

And do you know when I truly became interested in the issue of light pollution for the first time?

I would be happy to hear it.

I was working at the same American lighting practice at the time and took part in Tribute in Light project in New York. These were two beams of light symbolising the Twin WTC Towers, installed at Ground Zero to commemorate the tragedy and the people who died on 11 September 2001.

It was a very interesting experience – massive in scale, with precise calibrations. I had already worked professionally in Berlin before, but it was a completely different kind of experience. These two beams of light weren’t just two light sources – there were actually numerous luminaires with high-intensity xenon arc lamps, whose surface temperatures were extremely high.

And then something happened that no one expected. As we switched on the installation, something started falling from the sky onto the luminaires and hissing. I was horrified to see that they were birds and moths.

It turned out that Tribute in Light is located right on the birds' migration route. Birds navigate in part using an internal compass, but light of such high intensity and with a specific spectrum interfered with their spatial orientation. They would fall into this beam of light and start spinning, unable to get out. In the end, they would collapse from exhaustion or fall onto the luminaires, which were extremely hot.

The same happened with insects, especially large moths, which were also drawn into this vortex of light. No one had anticipated this beforehand. Only later bird conservation organisations began to raise awareness of the issue.

This was the moment when I realised that light also has its dark side – something that is rarely talked about. And that as designers we need to take this into account. Since then, we’ve made huge progress – we’re more aware now and we design more responsibly. When I look back at some of my projects I was involved iswn, I think I would approach them differently today. But back then, we simply didn’t have that knowledge. The good thing is that light can always be switched off.

NCN's series of talks on research, career paths and balancing professional and private roles has previously included interviews with ERC grant laureates Anna Matysiak a demographer and economist, Krzysztof Szade biochemist, Róża Szweda polymer chemist, Ewa Szczurek, computer scientist, Katharina Boguslawski, quantum chemist, and recipients of the L'Oréal-UNESCO Programme for Women and Science – Dr Zuzanna Świrad and Dr Marta Pacia and Dr Aleksandra Rutkowska

All interviews

Practical Knowledge in Rzeszów

Wed, 03/19/2025 - 14:00
Kod CSS i JS

You can now register for a series of workshops that will take place during this year’s NCN Days at the University of Rzeszów, on 12 and 13 May. They are addressed to researches and administrative support staff interested in the NCN application procedure, evaluation of proposals, project performance and best practices for research data management.

Discussion on research funding at the beginning

The NCN Days are held on a regular basis, once a year, each time in a different part of Poland, to familiarise Polish academic community and researchers with the NCN grant system.

This year, the event will be co-organised by the University of Rzeszów and supported by the City of Rzeszów, Regional Labour Office, HE institutions and universities from the region and the Podkarpackie Centre for Innovation (CTI) as partners. It will consist of an open part and workshops where prior registration will be required. The open part (12 May) will include an information meeting with NCN officers during which participants will find out about available calls, research fundings and future of the grant system. There will be also speeches and discussions on challenges facing science and research funding, e.g. the impact of AI on science.

Preliminary program of NCN Days in Rzeszów

Workshop for academics and administrative support staff

On 13 May, a workshop will be held for researchers, administrative support staff of research institutions and research data management professionals.

  • Evaluation of proposals: NCN expert team meeting

Participants will take part in a mock meeting of the expert team evaluating proposals submitted to our domestic calls. At the meeting, they will take on the role of experts and look at real-world proposals submitted to the NCN in the past, whose authors agreed to have them released for training purposes.

The workshop is addressed to researchers, including PhD students, intending to submit a funding proposal to the National Science Centre. To join the workshop, potential participants must draft a grant proposal review that will be discussed later on.

Details and registration

  • Workshop on Data Management Plans

The workshop will address the development of data management plans required by the National Science Centre and will consist of a theoretical part followed by team work, during which participants will work in teams divided according to specific scientific disciplines: Humanities, Social Sciences and Art Sciences, Life Sciences and Physical Sciences and Engineering. 

The participants will be asked to draft their own data management plans and present them to other attendees. The workshop will conclude with a summary and discussion on the most frequent mistakes. 

Details and registration  

  • Workshop for administrative support staff – employees of research institutions  

The workshop will be hosted by NCN professionals who handle research projects on a daily basis and cooperate with administrative support staff of research institutions. The key grant-related matters will be discussed, such as procedures implemented from signing the funding agreement to project completion, annexing, reporting, settlement and analysis of problems submitted by participants.

HR institutions co-organising the NCN Days will be in charge of registration for the workshop. 

Media support: Forum Akademickie

The project titled: Zbudowanie systemu koordynacji i monitorowania regionalnych działań na rzecz kształcenia zawodowego, szkolnictwa wyższego oraz uczenia się przez całe życie, w tym uczenia się dorosłychThe project titled: Zbudowanie systemu koordynacji i monitorowania regionalnych działań na rzecz kształcenia zawodowego, szkolnictwa wyższego oraz uczenia się przez całe życie, w tym uczenia się dorosłych

 

Spring intake of proposals in NCN calls now open!

Mon, 03/17/2025 - 12:00
Kod CSS i JS

Researchers at any stage of research career can now submit their basic research proposals to OPUS 29 and PRELUDIUM 24. The total budget of the two calls is 600 million zlotys.

OPUS and PRELUDIUM are the flagship calls in the NCN call portfolio. Gr ant holders will be able to pursue their projects in any research institute in Poland. Any topic may be chosen from 26 review panels, however only basic research proposals are allowed (empirical or theoretical endeavours undertaken to gain new knowledge of the foundations of phenomena and observable facts, without any direct commercial use).  

This edition of the OPUS call is open to researchers at any stage of their research career. They can apply for funding of research projects carried out over 12, 24, 36 or 48 months. OPUS projects can be performed with or without foreign participation, as well as with the use of large international research equipment by the Polish research teams (without LAP proposals).

There are no eligibility criteria as to the academic degrees or research career. Even researchers who are not PhD holders can apply. Principal investigators are required to have at least one paper published or accepted for publication. Although there is no upper limit of funding available to a project, the budget must be well-justified as regards the subject and scope of the research. Funds from the project budget may be used for salaries of the principal investigator and co-investigators (including post-docs), scholarships, purchase of research equipment, devices and software, materials and small equipment, outsourced services, business trips, visits and consultations as well as other costs crucial to the project.

PRELUDIUM 24 is targeted at researchers without a PhD degree who are at the onset of their research career. Grants of up to 70,000, 140,000 or 210,000 zlotys can go toward funding projects carried out over 12, 24 or 36 months.

Research teams must consist of up to three members, including the PI and the mentor. The project budget may go toward funding the salary of the research team members (the PI and (optionally) the co-investigator), purchase or manufacturing of research equipment, software and devices, materials and small equipment, outsourced services, business trips, visits and consultations, as well as compensation for collective investigators and other costs crucial to the project.

The total budget of 550 million zlotys has been designated for OPUS 29, which is 100 million zlotys more than in the previous call edition. The budget of PRELUDIUM 24 is 50 million zlotys, i.e. 10 million zlotys more than last year. The NCN Council may decide increase the budgets of each call, depending on various factors, such as a number of submitted proposals and available budget funds. 

OPUS 29 and PRELUDIUM 24 proposals may be submitted from 21 March to 17 June, 4 pm via the OSF submission system.

Evaluation of proposals and call results

OPUS and PRELUDIUM proposals are evaluated by Expert Teams set up for each panel (e.g. HS1, NZ1, ST1). The PI selects the panel when the proposal is developed. Since September 2024, a new list of 26 review panels has been in place.

Proposals submitted to the call are subject to an eligibility check followed by a merit-based evaluation performed in two stages. Evaluation is performed by an expert team created by the NCN Council among outstanding Polish and foreign researchers who are at least PhD holders. Firstly, the team members draft their individual reviews of proposals based on, e.g. the short project description (at least two reviews are drafted for each proposal). Then, based on the reviews, they discuss the proposals and decide on their evaluation at the first meeting. Ultimately, the team compiles a ranking list of proposals recommended for the second stage of evaluation. 

Secondly, proposals are delivered to at least two reviewers who are not members of the expert team. They draft individual reviews based on, e.g. the full project description. A ranking list of proposals recommended for funding is then compiled by the Expert Team on the basis of the reviews and discussions at the second meeting.

You can find out more about our evaluation procedure in podcast No 2/2023: Evaluation of Proposals and podcast No 3/2024: Evaluation of Proposals, part 2.

Call results will be published within 6 months of the proposal submission date, by the end of December 2025.  

M.ERA-NET 3 Call 2025 is now open

Tue, 03/04/2025 - 15:30
Kod CSS i JS

In collaboration with the M-ERA.NET 3 network, we have just launched a call for for international research projects in material science and material engineering as well as low carbon energy technologies, and research related to materials and battery technologies to support the European Green Deal. 

M.ERA-NET 3 Call 2025 is addressed to international consortia composed of at least three research teams from various countries participating in the call. Applicants must focus on the main objectives of the M.ERA-NET programme: supporting the European Green Deal, striving to achieve the United Nations’ Sustainable Development Goals, increasing socio-ecological benefits in the context of Responsible Research and Innovation (RRI), supporting the innovation chain, and strengthening interdisciplinarity.

The call covers the following subjects in material science and material engineering:

  1. Sustainable materials for energy applications,
  2. Innovative surfaces, coatings and interfaces,
  3. Advanced composites and lightweight materials,
  4. Functional materials,
  5. Materials addressing environmental challenges,
  6. Next generation materials for electronics.

Poland is represented by the National Science Centre and the National Centre for Research and Development to which scientists from research institutions may apply, depending on the scope of their research. The National Science Centre will fund basic research (Technology Readiness Level 1-4) without industrial participation, whereas the National Centre for Research and Development will fund projects starting from TRL 3-6 and achieving TRL 5-8, in which case involvement of an industrial partner is indispensable.

Under the call, researchers could plan their projects for a period of either 24 or 36 months. The principal investigator of the Polish research team had to be at least a PhD holder. The budget could include funds for salaries, purchase or manufacturing of research equipment, devices and software, outsourcing, business trips, visits and consultations, as well as other costs crucial to the project.

Research teams requesting funding under the call should first draft their pre-proposals in cooperation with their foreign partners and submit them by 13 May 2025, 12 noon via the international M-ERA.NET Submission System. Proposals will be evaluated by an international expert team and selected international consortia will be invited to submit full proposals. The call results will be published in February 2026.