Indoor/outdoor Bioaerosols Interface and Relationships Network - BioAirNet

Lead Research Organisation: Cranfield University
Department Name: School of Water, Energy and Environment

Abstract

In 2019 the Public Health of England estimated that, in the UK, between 28,000 and 36,000 deaths a year can be attributed to long-term exposure to air pollution. However, we still do not know what role particulate matter of biological origins (BioPM) or bioaerosols play in this health burden nor the precise impact of exposures within the indoor or outdoor continuum. Therefore, we don't yet know how to control BioPM. There is also significant knowledge gap on how the physico-chemical and biological characteristics of BioPM emissions are affected at the indoor-outdoor continuum and how these affect exposure patterns and what are the resultant health impacts. The lack of progress to date mainly stems from disconnected scientific disciplines and sectoral foci, each with their own perspectives, terminology and methods. Likewise, lack of knowledge on dose-response relationships and changing landscapes of psychosocial, economical and physical vulnerability and susceptibility of the population to BioPM over the life course and in different indoor and outdoor environments are key barriers to the estimation of health benefits. Therefore, the proposed network will address the interdisciplinary challenge needed for quantifying and managing human exposure to biological particulate matters and related health risks across a continuum of diverse indoor to outdoor environments. The research will engage with a wide range of actors to realise societal impact and establish cross-collaboration activities along with a roadmap for a comprehensive "Bio-exposome" assessment and characterisation.

Interactive activities including workshops and an online discussion forum are planned throughout the project. These activities will offer a unique opportunity for participants to debate issues around BioPM in a contested space with different interest groups. This will reveal new ways of thinking and innovative solutions to policy and issues around BioPM, as well as informing the ongoing focus of the network. Networking and dissemination activities include an annual based community event which showcases the disciplines needed to create a coherent research community that can explore the field all the way from functionality at a molecular level to the societal implications of introducing new approaches and technologies. Working groups (WG) each focused on a different theme will identify priority areas and draw on selected participants to ensure cross-fertilisation and the transfer of knowledge between disciplines, translating these into tangible outputs for stakeholders, policy-makers and other community-based actors. Joint events with other Networks will have an important function for cross-fertilisation and two-way transfer of knowledge and expertise. Cross-theme workshops will act as sandpits for cross-disciplinary and industry/academic discussion of transitional research developments. There is also a strong focus on empowering early career researchers (ECR) with an annual ECR conference, cross-disciplinary skills training, outreach activities, active programmes of inter-laboratory and industry secondments and directly allocated funds for ECR mobility to present work at international events.

BioAirNet has a strong and robust management and governance plan that has a high level of community-based stakeholders' involvement and reaches out to attract membership of the Air Community worldwide.

Planned Impact

The Network has been specifically planned to deliver the following impacts:
1. Widening and strengthening connections with influential trade groups, learned societies and associations (e.g. Chartered Institution of Wastes Management, Saint Gobain, Renewable Energy Association, the Aerosol Society and the Institute of Physics, RSK, Building Engineering Services Association). Representation from these is key towards long-term sustainability, maintaining broader industry, charity and business support for the network, and for accessing supplementary specialist expertise. The dissemination channels available through these organisations, and their voice in the context of government policy and regulators, will prove vital to the uptake of the network activities, and hence impact and benefit of the network.
2. Providing multiple opportunities for debate and dialogue (e.g. Theme Working Group meetings and cross-theme activities), shared problem solving, and collaboration (e.g. exchanges & training). Opening up BioAirNet events to both the private sector and non-partner institutions will enhance the potential academic and commercial benefits of the Network and ensure its long-term sustainability through a transition to self-funded activities.
3. Supporting capacity development and capability in a co-owned and professional framework that will contribute to the development and dissemination of a systematic and cross cutting approach and related tools allowing to work across disciplines, engage with stakeholders and impact on policy. Further benefits will be realised through activities for future funding applications and extended international collaborations beyond those developed within the BioAirNet activities.
4. Touching on societal challenges such as environmental sustainability, human health and wellbeing, air quality and living urban environments. As a result, we expect the network's outputs to be of interest to national and local media and will work with the partner universities to publicise the outputs through these.
5. Enhancing the development of Early Career Researchers (ECRs) as highly skilled researchers with the theoretical and practical skills needed to transform organisations, addressing a recognised skills gap.
6. Engaging through outreach activities with local schools allowing young people to meet inspiring role models and experience hands-on STEM activities. This STEM collaboration will aim to develop educational support materials for use by local teachers and to provide a legacy of resource for teaching beyond the end of the project. Societal impact will also be attained through public engagement and education outputs, including events such as the MK Science Festival.
7. Impacting on the research agenda by promoting whole systems approaches to environmental research as a key to high quality interdisciplinary outcomes. It will assist in national and international dissemination of its members' work for presentation at conferences, by web publishing the proceedings of its own workshops, symposia and conferences and drawing attention to these events and outputs through social media.
8. Providing a source of evidence and expertise in support of UK policy in the field air pollution, both through direct involvement with bodies such as the Environment Agency (EA) and indirectly by working with Trade and Professional associations in an advisory capacity.
9. Support the personal development of Network members across the career span, and especially at early career stage, by providing opportunities for interaction between community-based stakeholders and academic researchers and creating lasting links (both nationally and internationally) between different disciplines and communities.
 
Description Rapid, accurate and cost-effective methods for characterising bioaerosol concentration and composition are essential to identify risks and establish exposure thresholds. Such information is also important to inform on the appropriate ventilation and hygiene procedures for improved air quality and reduce risk.

Bioaerosols are airborne particles of biological origin, which can cause infectious and non-infectious diseases.
There are two major challenges in studying bioaerosols: sampling and characterisation, and lack of evidenced exposure thresholds.
Standardised protocols for bioaerosol sampling and analysis do not currently exist, making it challenging for regulators and health agencies to assess exposure and set guidelines.
A consensus of the most appropriate air sampling and analysis methods that is acceptable worldwide is urgently required.
Opportunities are needed for researchers and regulators to work together in developing more bespoke methods, tailored to the environment and microorganism being studied, in a regulatory context or health need.
Molecular methods such as High Throughput Sequencing and qPCR provide a rapid and detailed characterisation of air samples, and increasing automation and portability means that these methods could be integrated into automated sensor networks providing near real-time data.
Real-time measurement and identification of aerosol particles directly in the ambient air within seconds are also recommended where possible.
Exploitation Route The impact of these findings is significant as they highlight the potential health risks associated with exposure to bioaerosols, which can cause infectious and non-infectious diseases such as allergies, asthma, and chronic obstructive pulmonary disease (COPD). Moreover, the emergence of antimicrobial resistance (AMR) in bioaerosols is a major concern, and its impact on public health needs to be better understood.
The challenges related to bioaerosol sampling and characterisation, as well as the lack of evidence-based exposure thresholds, make it difficult for regulators and health agencies to assess exposure and establish meaningful guidelines for bioaerosol monitoring. The lack of standardized protocols and the variations in air sampling devices and efficiencies further complicate the issue.
The opportunities for researchers and regulators to work together to develop more bespoke methods tailored to the environment and microorganism being studied could lead to more effective monitoring and risk management strategies. The development of rapid measurement tools and fast identification of bioaerosols using molecular methods could provide real-time data to set exposure thresholds for biological air pollution.
These findings underscores the need for improved understanding and management of bioaerosols to protect public health and reduce the potential impact of bioaerosol-related diseases.
Sectors Communities and Social Services/Policy,Education,Environment,Leisure Activities, including Sports, Recreation and Tourism,Government, Democracy and Justice,Retail,Transport

 
Description Improving the postgraduate learning experience
Geographic Reach National 
Policy Influence Type Contribution to new or Improved professional practice
 
Description Antimicrobial Resistance (AMR) in the Environment - Bioaerosols
Amount £196,760 (GBP)
Funding ID 36346 
Organisation Environment Agency 
Sector Public
Country United Kingdom
Start 07/2022 
End 04/2023
 
Description Canada_IPAP - Anglo-Canadian Collaboration on Antimicrobial resistance
Amount £187,000 (GBP)
Funding ID BB/X012840/1 
Organisation Biotechnology and Biological Sciences Research Council (BBSRC) 
Sector Public
Country United Kingdom
Start 06/2023 
End 05/2025
 
Description Anglo-Canadian Collaboration on Antimicrobial resistance 
Organisation McGill University
Country Canada 
Sector Academic/University 
PI Contribution The responsibility of spearheading and managing the submission process for this new collaboration with Canadian partners falls on our shoulders. The objective of this research is to develop effective strategies and measures to tackle the challenges posed by these two critical areas. This initiative was submitted in response to BBSRC on Antimicrobial resistance (https://www.ukri.org/opportunity/partner-with-researchers-in-canada-on-antimicrobial-resistance-amr/#:~:text=You%20must%20partner%20with%20a,business%20and%20industry)
Collaborator Contribution The UK team consist of six leading scientists from Cranfield, UKCEH and the University of Exeter who have collaborated on several projects on AMR surveillance funded by UKRI (i.e. NE/V010441/1), the Environment Agency (Science Project 36346) and the Royal Academy of Engineering (FF\1920\1\36) (see CVs). Cranfield has been working with UKCEH and Exeter through a few UKRI-funded projects on AMR in collaboration with Toronto. The technology can be translated to tackle global AMR issue. The Canadian Team consists of a group of six leading scientists from the University of Toronto, McGill University, Université Laval, and Calgary University and complement the UK team in terms of AMR expertise. Cranfield and ULaval are currently collaborating on bioaerosols emissions and AMR. This project benefits from existing collaborations for some members of the team, while establishing new connections between others. We develop four interdisciplinary and interconnected themes, led by the investigators as follows: • Theme 1: Understanding AMR in managed agricultural environments Chairs: Coulon (Cranfield) & Zhao (McGill) • Theme 2: Emerging and novel technologies for AMR detection and surveillance in agriculture environment: Chairs: Yang (Cranfield), Liu (Toronto), • Theme 3: Human exposure and transmission risks Chairs: Leonard (Exeter) and Duchaine (ULaval) • Theme 4: Mechanisms of transfer and risk mitigation measure Chairs: Singer (UKCEH) and Sanati Nezhad (Calgary)
Impact None yet
Start Year 2022
 
Description Anglo-Canadian Collaboration on Antimicrobial resistance 
Organisation UK Centre for Ecology & Hydrology
Country United Kingdom 
Sector Public 
PI Contribution The responsibility of spearheading and managing the submission process for this new collaboration with Canadian partners falls on our shoulders. The objective of this research is to develop effective strategies and measures to tackle the challenges posed by these two critical areas. This initiative was submitted in response to BBSRC on Antimicrobial resistance (https://www.ukri.org/opportunity/partner-with-researchers-in-canada-on-antimicrobial-resistance-amr/#:~:text=You%20must%20partner%20with%20a,business%20and%20industry)
Collaborator Contribution The UK team consist of six leading scientists from Cranfield, UKCEH and the University of Exeter who have collaborated on several projects on AMR surveillance funded by UKRI (i.e. NE/V010441/1), the Environment Agency (Science Project 36346) and the Royal Academy of Engineering (FF\1920\1\36) (see CVs). Cranfield has been working with UKCEH and Exeter through a few UKRI-funded projects on AMR in collaboration with Toronto. The technology can be translated to tackle global AMR issue. The Canadian Team consists of a group of six leading scientists from the University of Toronto, McGill University, Université Laval, and Calgary University and complement the UK team in terms of AMR expertise. Cranfield and ULaval are currently collaborating on bioaerosols emissions and AMR. This project benefits from existing collaborations for some members of the team, while establishing new connections between others. We develop four interdisciplinary and interconnected themes, led by the investigators as follows: • Theme 1: Understanding AMR in managed agricultural environments Chairs: Coulon (Cranfield) & Zhao (McGill) • Theme 2: Emerging and novel technologies for AMR detection and surveillance in agriculture environment: Chairs: Yang (Cranfield), Liu (Toronto), • Theme 3: Human exposure and transmission risks Chairs: Leonard (Exeter) and Duchaine (ULaval) • Theme 4: Mechanisms of transfer and risk mitigation measure Chairs: Singer (UKCEH) and Sanati Nezhad (Calgary)
Impact None yet
Start Year 2022
 
Description Anglo-Canadian Collaboration on Antimicrobial resistance 
Organisation University of Calgary
Country Canada 
Sector Academic/University 
PI Contribution The responsibility of spearheading and managing the submission process for this new collaboration with Canadian partners falls on our shoulders. The objective of this research is to develop effective strategies and measures to tackle the challenges posed by these two critical areas. This initiative was submitted in response to BBSRC on Antimicrobial resistance (https://www.ukri.org/opportunity/partner-with-researchers-in-canada-on-antimicrobial-resistance-amr/#:~:text=You%20must%20partner%20with%20a,business%20and%20industry)
Collaborator Contribution The UK team consist of six leading scientists from Cranfield, UKCEH and the University of Exeter who have collaborated on several projects on AMR surveillance funded by UKRI (i.e. NE/V010441/1), the Environment Agency (Science Project 36346) and the Royal Academy of Engineering (FF\1920\1\36) (see CVs). Cranfield has been working with UKCEH and Exeter through a few UKRI-funded projects on AMR in collaboration with Toronto. The technology can be translated to tackle global AMR issue. The Canadian Team consists of a group of six leading scientists from the University of Toronto, McGill University, Université Laval, and Calgary University and complement the UK team in terms of AMR expertise. Cranfield and ULaval are currently collaborating on bioaerosols emissions and AMR. This project benefits from existing collaborations for some members of the team, while establishing new connections between others. We develop four interdisciplinary and interconnected themes, led by the investigators as follows: • Theme 1: Understanding AMR in managed agricultural environments Chairs: Coulon (Cranfield) & Zhao (McGill) • Theme 2: Emerging and novel technologies for AMR detection and surveillance in agriculture environment: Chairs: Yang (Cranfield), Liu (Toronto), • Theme 3: Human exposure and transmission risks Chairs: Leonard (Exeter) and Duchaine (ULaval) • Theme 4: Mechanisms of transfer and risk mitigation measure Chairs: Singer (UKCEH) and Sanati Nezhad (Calgary)
Impact None yet
Start Year 2022
 
Description Anglo-Canadian Collaboration on Antimicrobial resistance 
Organisation University of Exeter
Country United Kingdom 
Sector Academic/University 
PI Contribution The responsibility of spearheading and managing the submission process for this new collaboration with Canadian partners falls on our shoulders. The objective of this research is to develop effective strategies and measures to tackle the challenges posed by these two critical areas. This initiative was submitted in response to BBSRC on Antimicrobial resistance (https://www.ukri.org/opportunity/partner-with-researchers-in-canada-on-antimicrobial-resistance-amr/#:~:text=You%20must%20partner%20with%20a,business%20and%20industry)
Collaborator Contribution The UK team consist of six leading scientists from Cranfield, UKCEH and the University of Exeter who have collaborated on several projects on AMR surveillance funded by UKRI (i.e. NE/V010441/1), the Environment Agency (Science Project 36346) and the Royal Academy of Engineering (FF\1920\1\36) (see CVs). Cranfield has been working with UKCEH and Exeter through a few UKRI-funded projects on AMR in collaboration with Toronto. The technology can be translated to tackle global AMR issue. The Canadian Team consists of a group of six leading scientists from the University of Toronto, McGill University, Université Laval, and Calgary University and complement the UK team in terms of AMR expertise. Cranfield and ULaval are currently collaborating on bioaerosols emissions and AMR. This project benefits from existing collaborations for some members of the team, while establishing new connections between others. We develop four interdisciplinary and interconnected themes, led by the investigators as follows: • Theme 1: Understanding AMR in managed agricultural environments Chairs: Coulon (Cranfield) & Zhao (McGill) • Theme 2: Emerging and novel technologies for AMR detection and surveillance in agriculture environment: Chairs: Yang (Cranfield), Liu (Toronto), • Theme 3: Human exposure and transmission risks Chairs: Leonard (Exeter) and Duchaine (ULaval) • Theme 4: Mechanisms of transfer and risk mitigation measure Chairs: Singer (UKCEH) and Sanati Nezhad (Calgary)
Impact None yet
Start Year 2022
 
Description Anglo-Canadian Collaboration on Antimicrobial resistance 
Organisation University of Laval
Country Canada 
Sector Academic/University 
PI Contribution The responsibility of spearheading and managing the submission process for this new collaboration with Canadian partners falls on our shoulders. The objective of this research is to develop effective strategies and measures to tackle the challenges posed by these two critical areas. This initiative was submitted in response to BBSRC on Antimicrobial resistance (https://www.ukri.org/opportunity/partner-with-researchers-in-canada-on-antimicrobial-resistance-amr/#:~:text=You%20must%20partner%20with%20a,business%20and%20industry)
Collaborator Contribution The UK team consist of six leading scientists from Cranfield, UKCEH and the University of Exeter who have collaborated on several projects on AMR surveillance funded by UKRI (i.e. NE/V010441/1), the Environment Agency (Science Project 36346) and the Royal Academy of Engineering (FF\1920\1\36) (see CVs). Cranfield has been working with UKCEH and Exeter through a few UKRI-funded projects on AMR in collaboration with Toronto. The technology can be translated to tackle global AMR issue. The Canadian Team consists of a group of six leading scientists from the University of Toronto, McGill University, Université Laval, and Calgary University and complement the UK team in terms of AMR expertise. Cranfield and ULaval are currently collaborating on bioaerosols emissions and AMR. This project benefits from existing collaborations for some members of the team, while establishing new connections between others. We develop four interdisciplinary and interconnected themes, led by the investigators as follows: • Theme 1: Understanding AMR in managed agricultural environments Chairs: Coulon (Cranfield) & Zhao (McGill) • Theme 2: Emerging and novel technologies for AMR detection and surveillance in agriculture environment: Chairs: Yang (Cranfield), Liu (Toronto), • Theme 3: Human exposure and transmission risks Chairs: Leonard (Exeter) and Duchaine (ULaval) • Theme 4: Mechanisms of transfer and risk mitigation measure Chairs: Singer (UKCEH) and Sanati Nezhad (Calgary)
Impact None yet
Start Year 2022
 
Description Dstl 
Organisation Defence Science & Technology Laboratory (DSTL)
Country United Kingdom 
Sector Public 
PI Contribution Meeting at Dstl to discuss project and finalise secondment. Second meeting with Dstl to discuss progress to date
Collaborator Contribution Information on pathogen levels and sampling techniques
Impact None
Start Year 2015
 
Description Environmental Agency 
Organisation Environment Agency
Country United Kingdom 
Sector Public 
PI Contribution Sampling methodology
Collaborator Contribution pathogen levels
Impact No
Start Year 2015
 
Description Parternship with Transition Network on chemical and biological exposure in public tranport infrastructure 
Organisation Sustrans
Country United Kingdom 
Sector Charity/Non Profit 
PI Contribution Design and set up on dedicated workshop on Future mobility beyond COVID-19 for clean air and public health linking us with National Express and Sustrans network -
Collaborator Contribution Workshop on public transport and transitioning towards green space and cycling routes and potential impact on air quality, stakeholders perspectives on air quality/public health challenges beyond COVID-19 gathered and set up of master thesis projects for summer 2022 to explore further the contribution and potential benefits of green Infrastructures on both chemical and biological aerosols and implication for roadside air quality.
Impact Set up of master thesis project for summer 2022 with sustrans on the topic
Start Year 2021
 
Description Public Health 
Organisation Public Health England
Country United Kingdom 
Sector Public 
PI Contribution Discuss on pathogens
Collaborator Contribution Discussion about pathogens
Impact None
Start Year 2015
 
Description University of Essex pollution study to include county school children 
Organisation University of Essex
Department School of Biological Sciences
Country United Kingdom 
Sector Academic/University 
PI Contribution As a contributor to an EU project, Bioairnet's role involved facilitating workshops and linking key partners to shape the project's direction. Through our efforts, we helped to foster collaboration among diverse stakeholders and promote a shared understanding of the project's objectives. One notable achievement was securing the participation of a BioairNet member (Essex University Prof Corinne Whitby and Dr Rob Ferguson) in the project's consortium. Their individual's expertise and contributions were integral to the project's success. Overall, my contribution was instrumental in creating a supportive and collaborative environment that allowed the project to achieve its goals and being successful.
Collaborator Contribution Essex University will lead the bioaerosol sampling of schools across the research country partners and will lead the DNA analysis for the project - this is related to previous NERC project RAMBIE work outputs (NE/M010813/1 and NE/M010961/1).
Impact Project just starting - Bioairnet will be providing a platform for dissemination and wider outreach across the UK and beyond taking advantage of the stakeholders of the network. I've also been appointed as member of the Advisory board of the InchildHealth project
Start Year 2022
 
Description @BioAirNet1 Twitter account 
Form Of Engagement Activity Engagement focused website, blog or social media channel
Part Of Official Scheme? No
Geographic Reach International
Primary Audience Public/other audiences
Results and Impact Twitter account used to share and disseminate to general public and wider audience BioAirNet activities as well as those of the sister networks @TAPAS, @BreathingCity, @CleanAir4V, @Transition_Air and associated networks @SFTC_AQN, @UKCleanAir, GCARE@AirPollSurrey and @Sheffield:Air
Year(s) Of Engagement Activity 2020
URL https://twitter.com/BioAirNet1
 
Description A facilitated action learning workshop to develop a balanced position on BioPM as a component of healthy air 
Form Of Engagement Activity A formal working group, expert panel or dialogue
Part Of Official Scheme? No
Geographic Reach National
Primary Audience Professional Practitioners
Results and Impact Towards a balanced position on biological particulate matter as a component of healthy air
Purpose
Healthy lives require a healthy environment and therefore healthy air. However, there is no common conception of what biologically healthy air is. The lack of such a common conception has proved to be a barrier to discussions within our academic and stakeholder network (BioAirNet) and beyond. Our network is motivated to explore whether it is possible to develop a balanced way of thinking about healthy lives, a healthy environment and healthy behaviours that puts the risks associated with airborne biological hazards into perspective and acknowledges exposure to bioaerosols as part of a healthy life.
Contributors and approach
This initiative is the product of discussions within and beyond the UKRI Clean Air Programme funded BioAirNet network. It has been led by Sean Tyrrel (Cranfield University), Ian Colbeck (Essex University), Emma Marczylo (UK Health Security Agency), Frederic Coulon (Cranfield University) and Zaheer Nasir (Cranfield University).
Year(s) Of Engagement Activity 2023
 
Description A series of three virtual facilitated workshops on the topic of assessment of bioaerosol exposures and their associated health impacts 
Form Of Engagement Activity Participation in an activity, workshop or similar
Part Of Official Scheme? No
Geographic Reach National
Primary Audience Professional Practitioners
Results and Impact The first workshop was an opportunity to find out where we each area in our current Bioaerosol research and to share our aspirations for the future so that the research data is more consistent and useable across different regions. The workshop was mainly focused on structured discussions in breakouts and using the digital whiteboard (Mural) to keep a record that can be embellished after the workshop.
The focus of the second workshop was to identify what actions we can take as researchers to address the knowledge gaps that need plugging to achieve our agreed future vision. We developed our gap analysis from the workshop one and prioritise where we believe our community can make the biggest impact.
The final workshop had an open agenda to allow us to decide what activities we want to explore and develop further and begin working towards on tangible achievable activities as a team. This could be drafting a white paper, creating a toolkit, writing a short webblog, and preparing a podcast. These are currently underway.
Year(s) Of Engagement Activity 2022
 
Description BioAirNet LinkedIN listed group 
Form Of Engagement Activity Engagement focused website, blog or social media channel
Part Of Official Scheme? No
Geographic Reach International
Primary Audience Professional Practitioners
Results and Impact Listed group on LinkedIN to share BioAirNet networks activties and other networks activities. Key targets is to reach targeted audience of industry professionals and establish authentic relationships
Year(s) Of Engagement Activity 2020
URL https://www.linkedin.com/groups/9015520/
 
Description Biological particulate matter sources and dynamics across the indoor-outdoor continuum (Theme 1) 
Form Of Engagement Activity A formal working group, expert panel or dialogue
Part Of Official Scheme? No
Geographic Reach International
Primary Audience Professional Practitioners
Results and Impact Further suggestions gained from the delegates on which topics the network would like to focus in future meetings such as
• What sort of emerging and existing air cleaning devices and technologies are suitable for different indoor-outdoor scenarios?
• What is the impact of the interaction of bioaerosols with other chemical pollutants?
• Comparison of indoor/outdoor microbial diversity (including seasonality)
• How do different indoor - outdoors factors affect sampling strategies?
• Up to what extent and how can we compare different studies in varying scenarios?
• Is there a framework/protocol for contemporaneous indoor and outdoor measurements of source-specific exposure - disentangling anthropogenic- and bio-PM to study specific health conditions?
• Development of guidelines and protocols for selecting and comparing studies from different indoor-outdoor environments
• There's a real gap in knowledge around particle size / aggregation / rafting and particle penetration into building

Who should be leading or "in the room" in future talks?

• Continue the existing approach of engaging with diverse stakeholders
• Need to focus on emerging and overlapping topics across different BioAirNet themes. The overlap of interests around sources, post-emission dynamics, measurement and exposures is emerging as the priority.
• We will arrange joint sessions with other Clean Air networks such as Breathing City: Future Urban Ventilation Network on areas of mutual interest
• The colleagues from the University of Bristol, UK and the University of Utrecht, Netherlands are happy to deliver a presentation at future events.
• Other suggested individuals we might contact include Prof Stefan Schuster (NTU) on the airborne microbiome, Prof Dudley Shallcross (Bristol) on chemistry-biology interactions of PM, Prof Cath Noakes (Leeds) on ventilation and the Breathing City network, Prof Martin Gallaher (Manchester) on the BIOARC project, Prof Paul Linden (Cambridge) on the TAPAS project and air quality in Schools, German and Dutch researchers through the CEN working group on bioaerosol measurements in ambient air.

• The link between the bioPM exposure including the microbiome and the impacts on our health
• Is indoor pollen measurement a topic of interest for research?
• Understanding of indoor-outdoor co-exposure and the accumulative effect that can have on health outcomes
• Fate, behaviour and transformation of bioaerosols ( focusing on evaporation, condensation, open-air factor)
• Modelling the emission, distribution and deposition in indoor as well as outdoor.
• Measurements of resuspension and deposition (indoors and outdoors)
• How to integrate human behaviour and human space interaction in modelling studies?
• Validation of dispersion modelling especially for process-based bioaerosols emission
• SARS-CoV-2 is driving a huge amount of research relevant to Theme 1 - we shjould look for the opportunities to identify and discuss new knowledge emerging from this.
Year(s) Of Engagement Activity 2021
URL https://bioairnet.co.uk/first-thematic-workshop-bioairnet-theme-1/
 
Description Compendium of analytical methods for sampling, characterisation and quantification of bioaerosols 
Form Of Engagement Activity A formal working group, expert panel or dialogue
Part Of Official Scheme? No
Geographic Reach International
Primary Audience Professional Practitioners
Results and Impact The compendium on sampling and analysing bioaerosols was developed as part of the BioAirNet project's Theme 2, which focuses on the characterization of bioaerosols. Researchers, regulators, and public health officials worked together to compile information on methods for detecting, characterizing, and quantifying bioaerosols in various environments. The compendium was developed through a collaborative process that involved reviewing existing literature, sharing best practices, and discussing key findings. The aim of the compendium is to provide a comprehensive resource for researchers and regulators to better understand the methods available for sampling and analysing bioaerosols, with the ultimate goal of improving public and occupational health.
Year(s) Of Engagement Activity 2022
URL https://bioairnet.co.uk/publications/
 
Description Dedicated joint workshop with TRANSITION NETWORK 
Form Of Engagement Activity A formal working group, expert panel or dialogue
Part Of Official Scheme? No
Geographic Reach Regional
Primary Audience Professional Practitioners
Results and Impact Engagement with the transport sectors (Rail, Bus, Tram) on the post COVID steakholders perspectives and concerns of using public transport and importance of considering both chemical and biological emissions.
Year(s) Of Engagement Activity 2021
 
Description Developing a topic framework "The Clean Air Crisis" for microbiology curriculum resource in collaboration with international academics 
Form Of Engagement Activity Participation in an activity, workshop or similar
Part Of Official Scheme? No
Geographic Reach International
Primary Audience Schools
Results and Impact Development of a topic framework on bioaerosols. The target group is teachers (and older children and adults interested in learning about microbes and bioaerosols). The goal of the topic framework is to provide teachers with generic material on a range of topics that relate to situations experienced by children and/or to knowledge children should acquire for passage to adulthood, and the responsibilities that encompasses.
Year(s) Of Engagement Activity 2021
 
Description Gap analysis outcome on Biological particulate matter: Sampling and characterisation 
Form Of Engagement Activity A formal working group, expert panel or dialogue
Part Of Official Scheme? No
Geographic Reach National
Primary Audience Professional Practitioners
Results and Impact Gap analysis leading to the development of Compendium of analytical methods for sampling, characterisation and quantification of bioaerosols: covering air sampling methods, analysis methods, an dhow these methods inform different ennvironmental exposure and recommendation for human health exposure
Year(s) Of Engagement Activity 2021
 
Description Human Health, Behaviour and Wellbeing - Theme 3 workshop 
Form Of Engagement Activity A formal working group, expert panel or dialogue
Part Of Official Scheme? No
Geographic Reach International
Primary Audience Professional Practitioners
Results and Impact Workshop was focused on exploring the associations between BioPM and respiratory and neurological disorders, and the approaches that can be used to understand the biological mechanisms underlying these associations.
Year(s) Of Engagement Activity 2021
URL https://bioairnet.co.uk/bioairnet-workshop-theme-3/
 
Description Launch event of BioAirNet 
Form Of Engagement Activity Participation in an activity, workshop or similar
Part Of Official Scheme? No
Geographic Reach International
Primary Audience Professional Practitioners
Results and Impact The online event (via Zoom) provided an overview of BioAirNet themes and activities along with presentations from a range of stakeholders from academia, industry and regulators on the topics covering air quality and BioPM health impacts, interventions and regulatory landscape. Key purpose what to get stakeholders involved with the network and explain also the benefits of being involved such as:
Monthly newsletters including network updates, details on thematic workshops, sandpit events for funding application, internship opportunities, training courses, STEM and public outreach activities and other news from the sectors
Collaborative working: Networking is all about building valuable relationships and developing new and interesting approaches of doing business or research.
Business development: finding out what is happening within the sector and providing new ideas for the future expansion of your core business/research activities
Professional development and knowledge expansion by accessing a shared knowledge base through contact with like-minded individuals and improving your chance of success for future projects and collaboration
Market opportunities and exploring new ventures and obtaining informed, genuine feedback that helps you make the right decisions.
Exchanges and short-term industrial placements to gain skills or developing collaborative research
White papers and guidance documents: contributing to decision-making for future research directions and stakeholder policy support
Year(s) Of Engagement Activity 2020
URL https://bioairnet.co.uk/bioairnet-launch-event/
 
Description Outreach activities on literacy of microbiology in schools. Developing a topic framework "The Clean Air Crisis" for microbiology curriculum resource in collaboration with international academics 
Form Of Engagement Activity Engagement focused website, blog or social media channel
Part Of Official Scheme? No
Geographic Reach Regional
Primary Audience Schools
Results and Impact Outreach activities on literacy of microbiology in schools including (1) the development of a topic framework "The Clean Air Crisis" for microbiology curriculum resource in collaboration with international academics; (2) Engagement with schools - online presentation and activities on "air pollution causes and effects", "climate change" "indoor air quality, BioPM and healthy buildings" involving 300 children (KS2) across 5 schools; (3) publication of open access material for young learners providing an overview of BioPM science, challenges and risks along with activity sheets. 4) Group project focusing on engaging school children in bioaerosols and air quality has started 5) Network activities (workshops) with stakeholders are planned.
Year(s) Of Engagement Activity 2022,2023
URL https://bioairnet.co.uk/teaching-materials/
 
Description Publication of gap analysis on bioilogical particle matter characterisation 
Form Of Engagement Activity Engagement focused website, blog or social media channel
Part Of Official Scheme? No
Geographic Reach International
Primary Audience Professional Practitioners
Results and Impact The gap analysis allowed us to develop the next phase for the Theme 1 activities of the network which will focus on framing the concept of "biologically/healthy clean air" which would lead to a white paper to inform policy
Year(s) Of Engagement Activity 2021
URL https://bioairnet.co.uk/services/theme1/
 
Description Stakeholder engagement: How to best communicate Bioaerosol Science to different audiences? 
Form Of Engagement Activity Participation in an activity, workshop or similar
Part Of Official Scheme? No
Geographic Reach National
Primary Audience Professional Practitioners
Results and Impact Making scientific knowledge more accessible to wider public is challenging, especially for an interdisciplinary field like bioaerosol science, where effective communication to various stakeholders is facing complex challenges. The workshop therefore focused on how best to communicate the science of Biological Particulate Matter (BioPM) or airborne micro-organisms (bioaerosols) and associated results. The aim was to develop a framework for communicating bioaerosol science to different stakeholder; the General Public (GP), professionals, from different areas and the regulators. To do this, the workshop and subsequent analysis consisted of analysing the concerns of the stakeholders, conducting a literature review, and carrying out qualitative data analysis (QDA). This alllows to identify best communication mechanisms and the research on the key message for the stakeholders.
Year(s) Of Engagement Activity 2021
 
Description Theme 2 workshop - Biological Particulate Matter Sampling and Characterisation 
Form Of Engagement Activity A formal working group, expert panel or dialogue
Part Of Official Scheme? No
Geographic Reach International
Primary Audience Professional Practitioners
Results and Impact The thematic workshop was primarily focused on exploring the knowledge gaps along with barriers and opportunities for sampling, detection and characterisation of BioPM in different indoor-outdoor scenarios. During the interactive online session, leaders in BioPM sampling and analysis discipline and requirement from industry and regulators were sharing their views and needs, and offered diverse perspectives to facilitate the translation of advances in fundamental science into technological solutions.

We were keen to involve participants from diverse background and interest advancing our understanding of the factors that shape and support healthy natural and built environments with a key focus on BioPM.
Year(s) Of Engagement Activity 2021
URL https://bioairnet.co.uk/first-thematic-bioairnet-workshop/
 
Description why bioaerosols matter and what they mean for our health? 
Form Of Engagement Activity Engagement focused website, blog or social media channel
Part Of Official Scheme? No
Geographic Reach International
Primary Audience Public/other audiences
Results and Impact 1) Outreach activities to engage with schools - online presentation and activities on "air pollution causes and effects", "climate change" "indoor air quality, BioPM and healthy buildings" involving 300 children (KS2) across 5 schools. and Publication of open access material for young learners providing an overview of BioPM science, challenges and risks along with activity sheets.
Year(s) Of Engagement Activity 2021
URL https://futurumcareers.com/take-a-deep-breath-investigating-air-quality