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Optimization of Free Space Optical Communication Link based Drones for Search and Rescue Operations in the Arctic Region

The Arctic region is witnessing more frequent shipping accidents than ever which require accurate search and rescue operations. The existing communication systems use drones with radio frequency (RF) technology, which has limited bandwidth and cannot offer 4G/5G connectivity due to harsh weather constraints. It further limits the capacity of drones and affects the resolution of images and videos. The current research proposes to design free space optical communication (FSOC) link-based drones that can enhance connectivity between multiple drones and rescue ships as well as the capacity of drones to produce high resolution images and videos. The proposed FSOC-based drones can provide highspeed connectivity than the existing RF technology. The research will collect atmospheric turbulences data from the Arctic region and use it for designing the FSOC link. Furthermore, to enhance the capacity of FSOC-based drones, the research will design advanced multiplexing schemes (Mode Division Multiplexing and Orthogonal Code Division Multiple Access) and to ensure link stability, omnidirectional receiver will be designed. The research will further evaluate the performance of proposed FSOC link under the impact of various atmospheric turbulences. The expected outcomes of this research will lead to the optimisation of FSOC-based drones in expanding search areas and improving communication systems for SAR operations in the Arctic region.

Sjøisen i Arktis har minket drastisk de siste tiårene, og Polhavet forventes å være isfritt om sommeren mot slutten av århundret. Denne nedgangen har utsatt store havområder for vind, noe som har resultert i at det oftere dannes store bølger i Polhavet. Disse bølgene kan forplante seg over flere titalls til hundrevis av kilometer i sjøisen, knekke den og akselerere smeltingen. Disse fysiske prosessene – bølger som knekker sjøis og effekten dette har på sjøissmelting og vekst – mangler i modellene vi bruker for å forutsi klimautviklingen. Dette bidrar til store usikkerheter i klimamodeller. Effekten av bølger på sjøisen er heller ikke tatt med i prognoser for havets og sjøisens forhold, som brukes av skip som opererer i islagte farvann. I ForWArd ønsker vi å vurdere bølgenes innvirkning på sjøisens utvikling i det stadig røffere Polhavet. I dette arbeidet brukes en svært avansert modell som inkluderer sjøis, hav, bølger og deres interaksjoner. Vi skal først vurdere hvor godt den representerer forholdene i Polhavet sammenlignet med de få tilgjengelige observasjonene. Vi vil så bruke modellen til å undersøke hvordan bølgehøyden og arealet av ødelagt sjøis har utviklet seg de siste tre tiårene. Deretter vil vi kombinere modellen vår med forholdene i det fremtidige Polhavet gitt av klimafremskrivninger, for å undersøke hvordan betydningen av interaksjoner mellom bølger og is vil utvikle seg ettersom sjøis avtar i det 21. århundre. Vår modells estimering av "bølgepåvirkningen" vil tillate polarvitenskapsmiljøet å vurdere hvor usikre deres klimaspådommer uten bølger er. Til syvende og sist vil våre modellresultater og utviklinger legge grunnlaget for å legge til bølgeeffekter i hav- og sjøisvarsler i Arktis. Dette vil gjøre varslene mer nøyaktige og bidra til sikkerheten for menneskelig aktivitet i denne regionen.

Arctic sea ice decline under climate change has allowed waves to form and grow more easily in the Arctic Ocean. These waves propagate into the sea ice over tens to hundreds of kilometres, fragmenting it into small floes. This area of broken ice, known as the Marginal Ice Zone (MIZ), is a highly complex region where many interactions occur between the ocean, sea ice, and atmosphere. The action of waves strongly affects these interactions, with rapid feedbacks on the sea ice. However, climate models do not account for these wave-ice interaction processes, which likely contributes to the strong biases in their estimation of modelled sea ice extent and volume and their inability to capture short-term sea ice extent variability. Given the lack of observations available, numerical models remain the best way to estimate how wave-ice interaction processes can impact Arctic sea ice, but most wave-ice coupled models are still prototypes. In ForWArd, we will use one of the most advanced of these models to assess this impact in the context of climate change. To this aim, we will use the latest observations to calibrate the modelled wave-affected area and produce a 30-year-long hindcast of the MIZ extent evolution to analyse how it responded to larger wave height, delayed refreezing, and thinner ice. Then, we will assess the relative importance of the wave-ice interactions suspected to affect sea ice in the MIZ using well-documented events. Finally, we will estimate how waves will contribute to sea ice extent and volume variability in the coming decades, as large areas of open water will remain open until late in the autumn. The flexibility of our setup will allow us to test the sensitivity of our results to model resolution and assumptions, giving invaluable insights into the biases induced by misrepresenting wave-ice interactions. ForWArd will also pave the way for the integration of wave effects in sea ice forecasts, a requirement for safer operations in ice-infested waters.

Forecasting Wave impact as Arctic sea ice declines

Sustainable cultivation of polychaetes as feed in aquaculture

Fangst- og håndteringstress påvirker fiskens kjøttkvalitet eller overlevelsesevne dersom den blir sluppet fri. I WelTuna er målet vårt å minimere disse stressorene i for å forbedre velferd, bærekraft og produktkvalitet av makrellstørje i det norske stangfisket.
Kystnært stangfiske etter makrellstørje fra mindre fartøy har økt raskt i omfang for rekreasjon-, kommersielle- og vitenskapelige formål. Stangfiske har betydelig potensiale som velferdsvennlig fangstmetode, da metoden i motsetning til andre påvirker fisken i relativt kort tid og hver fisk blir håndtert individuelt.
Prosjektteamet vårt bestående av forskere, fiskere, fiskeriforvaltning, fiskekjøpere, foredlingsindustri, dyrevelferdsgrupper og andre interesseorganisasjoner fra hele verden, vil bruke de nyeste metodene og teknologien til å overvåke velferdstilstand under fangst, håndtering og slakting og relatere dette til kvalitet på individnivå. Denne kunnskapen vil så danne grunnlaget for utvikling av fangst- og håndteringsmetoder som minimerer stress og opprettholder høy kjøttkvalitet forebygger utilsiktet slipping av makrellstørje samt reduksjon i bifangst. Vi vil også gjennomføre studier av struktur og aktivitet i hjerne hos makrellstørje for å utvikle humane bedøvelsesmetoder som reduserer stress under håndtering og slakting.
Tilslutt vil vi, i samarbeid med internasjonale eksperter innen makrellstørje biologi og kvalitet, utarbeide beste-praksis-retningslinjer for fangst, håndtering, slakting, lagring og kvalitetskontroll. Vi håper at vårt fokus på bærekraft, god velferd og høy kvalitet vil fungere som en inspirasjon for utviklingen av ansvarlige fangstmetoder med fokus på fiskevelferd både nasjonalt og internasjonalt.

This project will improve animal welfare in wild-capture rod-and-line (R&L) fisheries for Atlantic bluefin tuna (ABT; Thunnus thynnus). By improving welfare, the project intends to minimise the environmental impacts of fishing through improvements to sustainability and product quality.

Since the re-establishment of the Norwegian ABT quota, the traditional capture method (purse seine) has not been efficient or profitable. As purse seiners target aggregations of fish, animal welfare  and product quality are easily compromised. In 2022, only 48% of the 315-tonne purse seine quota was caught.

A rod-and-line (R&L) fishery using coastal powerboats has also developed. In 2022, ~100 ABT were caught by R&L for recreational, commercial and scientific purposes. R&L capture overcomes many of the issues associated with purse seine fishing. Catching fish one-by-one gives the opportunity to maintain welfare and quality at the individual level. Norwegian R&L fishing for ABT is therefore well placed to transition towards an animal welfare conscious and environmentally sustainable fish capture method. However, knowledge gaps exist that hinder this transition:

1.	Lack of knowledge of the animal welfare impacts of capture and slaughter;
2.	Sub-optimal handling practices and limited processing infrastructure
3.	Limited understanding of ABT behaviour and distribution
4.	Bycatch and escape rates are unknown

The project is organised into four scientific work-packages (“Capture”, “Stunning”, “Welfare” and “Quality”) and a management WP to coordinate activities and communication. Fundamental to the project design is that every fish caught will be used by each scientific WP, with each using specific methodologies to address their respective objectives. The project will also benefit from the input of various stakeholders, including fishers, fishery managers, fish buyers, fish processors, animal welfare agencies and NGOs.

Welfare conscious capture and slaughter of Atlantic bluefin tuna (Thunnus thynnus L.) in the Norwegian rod and line fishery.

GeoPON-prosjektet tar sikte på å utvikle en 100 % sirkulær pongtong, fri for EPS, ved bruk av en skreddersydd geopolymer betong, og å dokumentere virkningene på ytelse og bærekraft. I tillegg, og for å redusere den totale tettheten til pongtongen, vil prosjektet også se på å erstatte de naturlige tilslagene i betongskallet med et sirkulært lett tilslag med lavt eller nøytralt karbonavtrykk, laget av avgang fra gruveindustrien og resirkulerte materialer fra industrien, . Som sådan vil innovasjonen føre til design av et nytt produkt, 100 % sirkulært og med lavere karbonavtrykk enn tradisjonell betong. For å passe til pongtong-spesifikasjonene, må produksjonsprosessen av det geopolymer baserte bindemiddelet og tilslagene optimaliseres og tilpasses.: Det  geopolymer baserte bindemiddelet er et semikrystallinsk amorft materiale, som dannes gjennom polymerisasjonsreaksjonen mellom en aluminosilikat kilde og en alkalisk reagens. Det er et sementfritt bindemiddel, med ultralavt karbonavtrykk, som også tillater CO2-binding. Tilslagene som produseres i prosjektet er satt sammen av et bindemiddel, et tilslagsmateriale samt ulike ytelsesbaserte tilsetningsstoffer, granulert og sintret ved høy temperatur, en prosess som gjør det mulig å skreddersy tilslagsegenskapene til brukerens behov, og for å kunne utnytte den produserte geopolymer baserte betongen som råmateriale ved produksjon av tilsvarende tilslag på slutten av levetiden. For å muliggjøre integrering av den sirkulære geopolymerbetongen som er utviklet i prosjektet til pongtongen, vil det etableres en helhetlig optimaliseringstilnærming i prosjektet, for å definere den beste utformingen av flytende strukturer basert på vurderingene av sirkulære betonger og kravet til de strukturelle ytelsene. Tilnærmingen vil inkludere design, bruk av fluidstrukturinteraksjonsmodellering, produksjon av pongtongen, produksjon av geopolymer og aggregater, og vurdering av miljømessige/økonomiske hensyn.

The main objective of the project is the development of 100% circular pontoon free of EPS using tailored geopolymer concretes and demonstrate the impacts on performance and sustainability. In addition, and for decreasing the overall density of the pontoon, the project will also look at substituting the natural aggregates in concrete shell by high performance recycled particles obtained from industrial wastes. As such, the innovation will lead to the design of a new product, 100% circular, manufactured and commercialised by Helmar. The production process of the foamed geopolymer concrete and the aggregates must also be optimised and tailored to fit for the pontoon specifications, leading to a new production process for Rockpore, and new waste recycle chain for Rana Gruber.
Helmar anticipates that the use of EPS might be prohibited in the future due to new regulations and is looking for alternatives.  The Rockpore solution appears very appealing as a substitute for EPS: The Rockpore concept is a type of low-density geopolymer-concrete, 100% circular, using recycled Light Weight Aggregates and cement free binders. The properties of the TBG can be modified to fit end user needs, which enables market penetration in markets outside the construction sector. The present project aims at utilising and adapting the Rockpore TBG together with a unique cement free, ultra-low carbon footprint binder as a substitute to traditional EPS block in the pontoons. In addition, a new aggregate type will be developed, as a substitute to the natural aggregates used in the shell concrete. To enable the integration of the circular geopolymer concrete developed in the project to the pontoon, a holistic optimization method will be established to define the best design of floating structure based on the assessments of circular concretes and the requirement on the structural performances, and will include design, manufacturing and assessment of environmental/economic considerations.

Development of a fully circular pontoon design by substituting EPS with a foamed carbon sequestrated geopolymer-concrete

Maritim- og offshoreindustrien har etterlyst en mer strukturert metode, som utnytter dagens teknologiske potensial, for å registrere og få tilgang til informasjon om fartøyets skrogtilstand. Utviklingen av en digital tvilling for vurdering av fartøyets skrogtilstand er et svar på dette som har flere fordeler.

Tidligere forskningsresultater har vist at droner tillater trygge,  automatiserte og fleksible fjerninspeksjoner. For å gi droneinspeksjoner en ekstra fordel, bør teknologi for å utføre droneinspeksjon mens fartøyet seiler, og muligheten til å automatisk gjøre tykkelsesmålinger, utvikles. Registrering av inspeksjonsdata fra droner til en digital tvilling er et naturlig neste steg. Gitt tilstrekkelig kvalitet på drone-innsamlede data, i tillegg til effektiv registrering av menneskelig innsamlede data, kan både menneskelige og dronebaserte inspeksjoner gi data til en digital tvilling og komplementere hverandre. Dette kan muliggjøre en mer effektiv overvåkning av skrogtilstand og redusere antall ganger mennesker utsettes for farene ved inspeksjon av trange/innestengte rom.

Ved å samle inn relevante skrogdata er det et potensial for å utnytte historisk informasjon fra en mengde fartøyer til å lage en statistisk modell for å forutsi skrogtilstanden. Dette kan tillate estimering av skrogets tilstand basert på operasjonelle forhold et fartøy har vært utsatt for. I kombinasjon med konstruksjonsmodeller kan dette også brukes til å automatisk lage skroginspeksjonsplaner som prioriterer områder med økt risiko for å ha feil.

Prosjektet ledes av DNV, et ledende klassifikasjonsselskap, i samarbeid med rederiene Altera Infrastructure og Klaveness, som er henholdsvis oljetanker- og lasteskipsoperatører i dette prosjektet, ScoutDI, en inspeksjonsdrone-leverandør, og NTNU gjennom Autonomous Robots Lab ved avdeling for kybernetikk.

The project will develop the concept of a digital twin of the hull condition for assessing the structural integrity and compliance of the physical hull. The digital twin is kept up to date with the physical hull over its lifetime by frequently collecting large amounts of data, in non-intrusive ways that do not interrupt business operations. This enables continuous monitoring and compliance assessment. Autonomous drones collect the data instead of humans to improve personnel safety. Automated damage detection and coating breakdown assessment assists the human expert, leading to improved quality of the structural integrity assessment. The project will enable digital twin-based surveys as industrial standard and realize economic and safety benefits as well as reducing environmental footprint due to reduced need for travels. 

The innovation will lead to improved quality and safety of vessel inspection services, in particular: 
1. Hull condition assessment and continuous compliance decision in a 3D digital twin, a multi-data digital representation of the physical hull based on data such as high-precision point clouds, videos, AIS and weather data. The digital twin also holds location-tagged thickness measurements, history of damages and repairs, and data of sister vessels. 
2. High coverage, high-quality, location-tagged data of the hull compartment, collected frequently by autonomous/automated drones with semantic knowledge of the physical structure. Automated data collection ensures standardized data which improves comparison with historical data. Drone-based collection during sailing or between discharge and loading of cargo causes minimal interruption of business operations. 
3. Automated damage detection in point clouds and videos, automated damage probability predictions based on data in the digital twin, and an automatically generated targeted inspection plan for the drones as well when physical inspections are deemed necessary.

Assessment of ship hull Integrity based on a Digital Twin

Trådløs kommunikasjonsrevolusjon i maritim industri

Scandinavian Reach Technologies leder et banebrytende prosjekt for trådløs kommunikasjon i stålkonstruksjoner, som skip. ScanReach fokuserer på å forbedre sitt produkt for trådløs tilkobling om bord (OWC) for å møte de økende kravene fra den maritime industrien, offshore og havvindindustrien, som raskt går over til digitale og IoT-baserte operasjoner for forbedret effektivitet, sikkerhet og motstandsdyktighet.

Innovativ teknologi: Teknologien er designet for å muliggjøre trådløs kommunikasjon i stål-dominerte miljøer, en kjent utfordring i den maritime sektoren. Denne teknologien baserer seg på lavenergi-radio meshnettverksnoder som muilggjør trådløs datatransport gjennom skip, og baner vei for diverse IoT-applikasjoner som sporing av personell og eiendeler, og integrering av miljøsensorer. Med en industri som beveger seg mot digitale tvillinger, maskinlæring og overvåking av energiforbruk i sanntid, utvikler selskapet neste generasjon av avanserte kommunikasjonsnoder. Disse nodene er ment å håndtere større mengder trådløse data, noe som gjør dem passende for de høyteknologiske kravene til moderne skipsfart.

Fordeler over tradisjonelle systemer: Denne innovasjonen skiller seg ut fra tradisjonelle trådløse løsninger som ofte sliter i tette stålrike skipmiljøer og bruk av kabler. Den fjerner behovet for omfattende og kostbar kabling, noe som fører til en forenklet infrastruktur, enklere installasjon og lavere vedlikeholdskostnader.

Fokus på forskning og utvikling: F&U-arbeidet er fokusert på å utvikle et effektivt og pålitelig trådløst system for maritime industrier. Dette inkluderer å identifisere brukbare frekvenser og protokoller for robust kommunikasjon i ståltunge miljøer, og designe kompakt, energieffektivt utstyr. Prosjektet innebærer en kombinasjon av litteraturgjennomgang, datamodellering, eksperimentell prototyping og felttesting.

This project strives to advance wireless communication in large steel structures, such as ships, improving our existing Onboard Wireless Connectivity (OWC) product. This enhancement will bolster Scandinavian Reach Technologies AS market presence and relevance in the competitive shipping industry. The primary need for this innovation arises from the maritime, offshore, and sea wind industries. These industries are transitioning towards digital and IoT-based operational models for efficiency, safety, and resilience. 

Scandinavian Reach Technologies is at the forefront of addressing this need. Its revolutionary technology enables efficient wireless communication within confined steel environments. It eliminates the need for costly and complex cabling based on an innovative, low-power radio mesh networking node that allows wireless data transport to the gateway/edge computer throughout the mesh network. This technology paves the way for various IoT applications, such as tracking personnel and assets, collecting environmental sensor readings, and integrating other third-party sensors.
 
While the company's current mesh nodes are designed for simple sensor data and limited data volumes, the emerging ambitions for Digital Twins, Machine Learning models, and Real-time Energy Consumption monitoring in the industry have created a demand for high-volume wireless data transport to an internet endpoint. To meet this demand, Scandinavian Reach Technologies AS is dedicated to developing next-generation communication nodes capable of handling large amounts of wireless data in complex steel environments to replace signal cabling entirely.

SteelWave High Volume Wireless Communication Platform for Steel Environments (HWC-SE)

Global oppvarming fører til store endringer i Antarktis; isbreene, is bremmene og havisen smelter; det påvirker havstrømmer og dynamikk i Sørishavet som igjen påvirker de marine økosystemene og deres evne til å absorbere den økte atmosfærisk CO2 som er et resultat av menneskelig aktivitet. Sørishavet er har rike økosystemer hvor planteplankton og isalger effektivt lagrer CO2 gjennom fotosyntese. De nåværende og fremtidige endringene i den fysiske dynamikken i Sørishavet vil spille en stor rolle for fremtiden til marine økosystemer her og dermed evnen til å absorbere CO2.

Dette prosjektet har som mål å etablere et observatorium for biologisk mangfold og økosystemendring for det østlige Weddellhavet / Kong Haakon VII-havet. I denne regionen har det vært begrensede effekter av klimaendringer, men det er nå økende bevis økte miljøforvandling med betydelig innvirkning på biologisk mangfold og funksjonen til økosystemene. Det er begrenset data om økosystemet i dette området. Ved å etablere systematisk overvåkning av økosystemet, vil dagens status for økosystemet og det biologiste mangfoldet sammenlignes med antatte framtidige endringer. Dette vil bidra til å oppnå internasjonale mål for bevaring av marint biologisk mangfold og demping av klimaendringer.

This Biodiversa+ project aims to lay the foundation of a transnational Weddell Sea Observatory of Biodiversity and Ecosystem Change (WOBEC) for the Eastern Weddell Sea / King Haakon VII Sea (EWS) in the Southern Ocean. The Weddell Sea plays a key role for global ecosystem services, such as climate regulation and food provision, and hosts many species with conservation status. Acknowledging this unique ecological value, the EU and other members of the Convention for the Conservation of Antarctic Marine Living Resources (CCAMLR) are working towards a Marine Protected Area in the Weddell Sea (WSMPA). In the EWS, there is increasing evidence of a transition from a period of relatively muted climate change into an era of environmental transformation with significant impacts on biodiversity and ecosystem services. Until present, however, the ecosystem of the EWS has remained notoriously under-studied. By laying the foundations of systematic ecosystem monitoring in the EWS, WOBEC will provide a baseline of the present state of biodiversity and ecosystems against which change can be measured and contribute to a number of transnational goals in marine biodiversity conservation and climate change mitigation, including the UN Sustainable Development Goals, the EU Biodiversity Strategy for 2030, and the post-global biodiversity framework.

Weddell Sea Observatory of Biodiversity and Ecosystem Change

BioBoost+-prosjektet vil fremme kostnadseffektiv høyfrekvent prøvetaking og identifikasjon av marine planter og dyr ved å bruke Artificial Intelligence (AI)-teknologi på fotografier og video. Disse metodene vil bli brukt på habitater (sjøgressenger, skalldyrsenger og makroalgekroner), indikatorarter av økologisk og økonomisk betydning (f.eks. fisk, hummer, strandfugl), invasive arter og plankton (grunnlaget for næringsnettet). Ved Nord universitet vil fokus være på automatisering av analyser av dyreplanktonprøver samlet inn årlig i over 40 år, og nyere etablert overvåking av havbunnsfauna og fisk på livestream undersjøisk video i Saltfjord.

Disse dataene er nødvendige for å gi rettidig informasjon om helsen til økosystemene og endringer i biologisk mangfold i sammenheng med fiskeri, klimaendringer og invasive arter. Dette prosjektet i europeisk målestokk involverer åtte organisasjoner og har studiesteder i Middelhavet, Nord- og Norskehavet, inkludert steder med aktiv habitatrestaurering og marine verneområder. De forbedrede metodene vil akselerere tilgjengeligheten av informasjonen for forskere, myndigheter og innbyggere.

BioBoost+ is designed to improve non-invasive, cost-effective, and high-frequency sampling and identification of marine plants and animals by applying state-of-the-art Artificial Intelligence (AI) technology with digital imagery including real-time monitoring via camera networks and involvement of citizen science groups. These methods are applied to a wide range of taxa, from habitat-forming species (seagrass meadows, shellfish beds, and macroalgal canopies), indicator species of ecological and economic importance (e.g., coastal fish, lobsters, shorebirds), invasive species, and understudied groups (from microscopic, free-floating animals to rare fish). BioBoost+ enhances biodiversity monitoring within European regional seas from the Mediterranean, North and Norwegian Seas to support ongoing conservation interventions such as active habitat restoration projects and Marine Protected Areas (MPAs). Improved biodiversity monitoring will allow a better understanding of large-scale phenomena, such as thresholds, regime shifts and species invasions in vulnerable ecosystems, improve the capacity to predict the impacts of multiple stressors, and to develop better indicators of marine ecosystem health.

Boosting the Frequency and Scale of Marine Biodiversity Monitoring Using Digital Imagery and Artificial Intelligence

Akvakultur er for tiden den raskest voksende matproduksjonssektoren globalt, men på grunn av utilstrekkelig avfallshåndtering i produksjonssystemene, har den en betydelig miljøpåvirkning. For å sikre at industrien kan vokse på en bærekraftig måte, er det avgjørende å dempe disse miljøeffektene, samtidig som det skapes en sirkulær økonomi.

SEA-CYCLE-prosjektet har som mål å utnytte avfall og avløpsvann fra havbruksnæringen ved å innføre sirkulærøkonomiske prinsipper i håndteringen av havbruksavfall som en del av produksjonsprosessen.

Hovedmålet med SEA-CYCLE er å utvikle kunnskap som vil bidra til flere bærekraftige tilnærminger i produksjonsprosesser og samtidig minimere forurensning i havmiljøet. Prosjektet foreslår teknologier for å bidra til de sirkulære tilnærmingene i akvakultursektoren, samtidig som miljøforurensningen reduseres via bærekraftig avløpsvannbehandling og ressursgjenvinningsteknikker. I tillegg vil SEA-CYCLE evaluere den økonomiske levedyktigheten til disse teknologiene fra et samfunnsmessig ståsted, med tanke på både miljøkostnadene og fordelene involvert.

Aquaculture is currently the fastest growing food production sector globally, but it also has the potential to leave a significant environmental impact due to inadequate waste management practices within its production systems. To ensure a sustainable expansion of this industry, it is crucial to make efforts to minimize or mitigate these environmental effects, while creating circular economy. The SEA-CYCLE project aims to utilize waste and wastewater from the aquaculture industry by implementing circular economy principles in the management of aquaculture waste as part of the production processes.

The project proposes creating value chain for aquaculture waste resulting from aquaculture production. The project will i) investigate the valorization options of aquaculture sludge through anaerobic digestion and pyrolysis, ii) assess the ability of biochar produced from aquaculture sludge for N and P recovery and heavy metal removal from aquaculture wastewater, iii) assess the potential of aquaculture wastewater enriched biochar as biobased fertilizer. The environmental and economic impacts of the proposed technologies in the project will be assessed by life cycle analysis (LCA) and social cost-benefit analysis. 

In this project, we have assembled a strong interdisciplinary team of scientists with complementary expertise in the valorization of aquaculture waste including anaerobic digestion, production and utilization of biochar for environmental applications, LCA and cost-benefit analysis. The project primarily supports the achievement of the SDG 6, SDG 7, SDG 12, SDG 13 and SDG 14 by proposing technologies to contribute to the circular approaches in the aquaculture sector while reducing the environmental pollution via sustainable wastewater treatment and resource recovery techniques.

Sustainable aquaculture industry waste valorization through recycling

Midlene fra AS-HEL-Samfunnsmedisin og helsetj. fordelt på år

Midlene fra AS-HEL-Samfunnsmedisin og helsetj. fordelt på fylker

Midlene fra AS-HEL-Samfunnsmedisin og helsetj. fordelt på fagområde

Professor

Prosjektet består av tre ulike delprosjekter som tar sitt utgangspunkt i tidligere forskning på hemisfære-asymmetri og dikotisk lytting. Hovedproblemstillingen er å undersøke funksjonelle aspekter ved hemisfæreasymmetri til auditive stimuli, målt med funk sjonell magnet tomografi (fMRI). 
Hovedproblemstillingen kan brytes ned i tre delprosjekter: 
<h>1. Spesifisere "functional maps" i den øvre del av temporallappene, og den fremre midtdel av frontallappene. Stimuli blir presentert med dikotisk teknikk og u tgjøres av akustiske lyder/stavelser som varierer i språklig kompleksitet over tre nivåer (akustisk, fonologisk og semantisk). Det forventes en økende venstresidig asymmetri ved økende grad av språklig kompleksitet. 
<h>2. Undersøke effekter på nevronal n ivå av rettet oppmerksomhet mot høyre eller venstre øre, til de samme stimuli, med hypotesen at oppmerksomhet vil øke asymmetrien til det samme stimulus. 
<h>3. Sammenligne nevronal aktivering hos friske og schizofrene pasienter i det samme paradigme, med  hypotesen at schizofreni innebærer avvikende hemisfæreasymmetri. 
Prosjektet gjennomføres på MR-maskinen på Haukeland sykehus innenfor virksomheten til fMRI-gruppen i Bergen, der professor Kenneth Hugdahl er leder. Maskintid garanteres gjennom en generel l bevilgning til fMRI-gruppen fra Innovest og Røntgenavdelingen, Haukeland sykehus, og vil fra neste år være 2 dager i uken.

Hemisfæreasymmetri: Eksperimentelle og kliniske undersøkelser

The first European Digital Health Technology Assessment framework co-created by all stakeholders along the value chain

Digital health technologies (DHTs) are expected to improve both the quality and delivery of healthcare services for European societies while ensuring the sustainability of Europe`s healthcare systems. DHTs are also able to collect real-world data and evidence relevant for decision makers. However, the implementation of DHTs implies new methodological challenges to the standardisation of assessment criteria. Existing Health Technology Assessments (HTAs) are unable to capture the real added value of DHTs. EDiHTA will be the first flexible, inclusive, validated and ready-for-use European HTA framework reaching TRL 6-7, allowing the assessment of different DHTs (e.g. telemedicine, mApps, AI) at different TRLs, territorial levels (national, regional and local) and perspectives (e.g. payer, society, hospital). All relevant stakeholders will contribute to its design, development and validation. The digital framework will be piloted in real healthcare settings in 5 major European hospitals and through an open piloting scheme with European DHT developers. The principles of EDiHTA are to 1) promote a holistic approach involving all stakeholders for consensus building at national and European levels; 2) define a common terminology, harmonise and enrich existing HTA frameworks and create an open repository with frameworks, guides, articles and HTA methodologies; 3) optimise assessment processes along the DHT life cycle; 4) follow a multi-stakeholder, multi-domain and modular approach; 5) co-create EDiHTA solutions; and 6) provide a validated and ready-for-use digital HTA framework for DHTs. Next to leading academic groups in HTA research, our multidisciplinary consortium includes HTA agencies, clinics as DHT end-users, technology providers and a patient organisation with links to the broader European healthcare landscape of regulatory bodies, policymakers and payers. EDiHTA will leverage its network to accelerate the market entry of new DHTs for the benefit of European society.

Partnership for the Assessment of Risks from Chemicals

PARC is an EU-wide research and innovation partnership programme to support EU and national chemical risk assessment and risk management bodies with new data, knowledge, methods, networks and skills to address current, emerging and novel chemical safety challenges. PARC will facilitate the transition to next generation risk assessment to better protect human health and the environment, in line with the Green Deal?s zero-pollution ambition for a toxic free environment and will be an enabler for the future EU ?Chemicals Strategy for Sustainability?. It builds in part on the work undertaken and experience acquired in past and on-going research and innovation actions, but goes beyond by its vocation to establish an EU-wide risk assessment hub of excellence. To contribute to several expected impacts of destination 2 ?Living and working in a health-promoting environment?, PARC will organise the activities to reach three specific objectives:
- An EU-wide sustainable cross-disciplinary network to identify and agree on research and innovation needs and to support research uptake into regulatory chemical risk assessment.
- Joint EU research and innovation activities responding to identified priorities in support of current regulatory risk assessment processes for chemical substances and to emerging challenges.
- Strengthening existing capacities and building new transdisciplinary platforms to support chemical risk assessment.
The Partnership brings together Ministries and national public health and risk assessment agencies, as well as research organisations and academia from almost all of EU Member States. Representatives of Directorates-General of the EC and EU agencies involved in the monitoring of chemicals and the assessment of risks are also participating. PARC will meet the needs of risk assessment agencies to better anticipate emerging risks and respond to the challenges and priorities of the new European policies.

OrganVision: Technology for real-time visualizing and modelling of fundamental process in living organoids towards new insights into organ-specific health, disease, and recovery

OrganVision is a revolutionary technology proposition that will break new grounds in microscopy and develop an ideal imaging solution for organoid research. It will enable life scientists to visualize life unfolding in real-time inside the cells and tissue in an organ-mimicking living tissue environment (called organoid here). It will alter the paradigm in microscopy by converting the central obstacle of light scattering by thick samples into the central opportunity that enables 3D label-free imaging on organoids in real-time with sub-cellular (~200 nm) and inter-cellular resolution (~1 um) at speeds of >1 volume per second (cube of 100 um). For achieving this unprecedented feat, OrganVision will develop a new multi-physics solver that solves transport of intensity (ToI) and full wave electromagnetic (FWEM) models in a coupled manner. ToI provides 3D image with inter-cellular resolution and generates intensity distribution inside the sample. FWEM uses this intensity distribution to decode the near-field light interaction between the sub-cellular entities for generating 3D sub-cellular image. A novel microscope instrument delivers custom designed 3D illumination patterns at the speed of 200 patterns per second in order to solve the problem of ill-posedness encountered by these solvers. In order to exploit the opportunity thus created, OrganVision will develop an a computational model that models the dynamics and interactions of functional entities recorded by OrganVision imaging solution in order to identify the underlying mechanisms. The proof-of-concept will be shown on engineered heart tissue for real-time imaging of cell and tissue activity towards studying injury, repair and regeneration in heart muscle. OrganVision will transform microscopy from a visualization device to a knowledge discovery tool that will change the course of organoid research forever. We believe that OrganVision will lead to better understanding and faster therapy for several diseases.

Human, technical and political factors for better coordination and support of e-health in Africa

Our objective is to inform e-health policymaking towards better health outcomes through a bottom-up evidence-based holistic approach.  BETTEReHEALTH will set up four Regional Hubs based in Tunisia, Ghana, Ethiopia and Malawi, already endorsed by each country's Ministry of Health. Each hub will organise coordination and networking activities (including two regional workshops) involving national and regional actors. We are planning actions to address three aspects related to successful e-health: human, technical and public policy factors. We will also organise two international workshops to promote the cooperation and networking between Europe and Africa.  BETTEReHEALTH will create open access registries by collecting information from African countries regarding e-health policies and existing e-health solutions. The registries will be used to identify best-practices and produce useful knowledge regarding e-health implementation. The knowledge produced in registries, together with the input from the other activities will be synthesized into e-health policy roadmaps and strategic implementation plans for better e-health services for the four countries hosting Regional Hubs, but will also be of high relevance for other African countries.  The strengths of BETTEReHEALTH are the diversity of the involved partners, which will contribute to an interdisciplinary approach (including health, technical and policymaking actors), the evidence-based approach guaranteed by the academic and research partners, and the strong local involvement ensured by the four Regional Hubs.  BETTEReHEALTH will increase the level of international cooperation in e-health, inform and strengthen end-user communities and policy makers in making the right decisions for the successful implementation of e-health, and lead to increased opportunities for stakeholders in Africa and Europe with the overall aim of better health outcomes through better healthcare accessibility and higher quality.

Watching the risk factors: Artificial intelligence and the prevention of chronic conditions

Digital healthcare may prevent poor health. Personalised early risk prediction by artificial intelligence can empower citizens to adopt healthier habits and a better lifestyle. This project aims at defining a general personalised early risk prediction model that will be used to support individual preventive measures as well as early intervention. New digital tools are designed to empower both citizens and patients. Furthermore, the impact of the new digital tools on health and care pathways are investigated. Three main scenarios are included: 1. Chronic sun damage and the fight against skin cancer, 2. The late complications of diabetes mellitus and 3. The four main lifestyle risk factors in noncommunicable diseases. In scenario 1, a smartphone application estimates a person`s risk for sun damage and skin cancer. Both healthy persons and skin cancer patients are included. The analysis is based on user-collected data indicating previous and current sun exposure, skin type including a computer-based naevus classification and the family history of skin cancer. Persons at increased risk are educated on healthy sun exposure behaviour including sun screen use. In addition, they are asked to see their doctor for a total body skin examination. In scenario 2, a smartphone application estimates a person`s risk for late complications of diabetes. General lifestyle measures as well as blood sugar levels collected by the patient are used as input for the analysis. Persons at increased risk for complications are given specific advice and are asked to see their doctor. In scenario 3, a web-based tool to collect general lifestyle data in healthy populations is tested, emphasising the four main risk factors: Unhealthy diet, physical inactivity, tobacco use and harmful use of alcohol. All data in the project are analysed in a multidisciplinary approach including medical, sociological and behavioural outcomes.

Gravitate–Health: Empowering and Equipping Europeans with health information for Active Personal Health Management and Adherence to Treatment

The Gravitate-Health mission is to equip and empower citizens with digital information tools that make them confident, active, and responsive in their patient journey, specifically encouraging safe use of medicines for better health outcomes and quality of life. It is our vision that engagement of citizens in their own health can only be achieved with access to actionable, understandable, relevant, reliable and evidence-based information meets their specific needs, health context, and literacy level. This project's ambition is to provide a key piece to advance this vision: the Gravitate Lens (G-Lens), which focuses (but does not conceal or filter) approved electronic product information (ePI) content, and offers a route for patients to access trustworthy, up-to-date information that better meet their individual needs.    Gravitate-Health is an integrated digital health information project. The principle objective is to demonstrate how use of an integrated, digital, user-centric health information solution with two-way communication could enable tangible improvements in availability and understanding of health information from a set of trusted sources, starting with regulator-approved medicinal product information (e.g. package leaflet content) and EHR-IPS (International Patient Summary). The secondary objectives are to demonstrate that the improved availability and understanding of health information from trusted sources translate to higher levels of adherence to treatment, safer use of medication (Pharmacovigilance), better health outcomes and quality of life, and to develop new and deeper insights into how use of available health information can be optimized to act as effective risk minimization measures.   The project allows for efficient and timely development of the G-lens, provides testing grounds for new services and an evaluation framework to test the efficiency, efficacy and safety of Gravitate-Health services. Our main outputs will be an open source digital platform supporting G-Lens functionally, demonstrated in a number of testing scenarios, and a White Paper with recommendations on realistic strategies to strengthen access, understanding and future use of digital services like ePIs as a tool for Risk Minimization.  The Gravitate-Health is a public – private partnership with 40 members from Europe and the US, co-led by University of Oslo (coordinator) and Pfizer (industry lead), funded by the Innovative Medicines Initiative (IMI) – a joint undertaking of the European Commission, the European Federation of Pharmaceutical Industries and Associations (EFPIA), IMI Associated Partners.

A SECURE HEALTHCARE ENVIRONMENT FOR INFORMATICS RESILIENCE

The health sector is steadily becoming the de facto target for cyberattacks. Based on the most recent ENISA report at the end of 2018, cybersecurity incidents have shown that the healthcare sector is one of the most vulnerable. Focusing specifically on Electronic Medical Devices (EMD), they suffer from numerous and multi-layered vulnerabilities . Default, weak or no password authentication for remote connections, unencrypted traffic or obsolete and insecure cryptographic algorithms, unsupported operating systems, outdated, unmanaged and vulnerable software are among the most serious problems that jeopardise both their smooth operation and the data aggregated and stored. The vision of HEIR is to provide a thorough threat identification and cybersecurity knowledge base system addressing both local (in the hospital / medical centre) and global (including different stakeholders) levels, that comprises the following pillars: (i) Real time threat hunting services, facilitated by advanced machine learning technologies, supporting the identification of the most common threats in electronic medical systems based on widely accepted methodologies such as the OWASP Top 10 Security Risks and the ENISA Top 15 Threats; (ii) Sensitive data trustworthiness sharing facilitated by the HEIR privacy aware framework; (iii) Innovative Benchmarking based on the calculation of the Risk Assessment of Medical Applications (RAMA) score, that will measure the security status of every medical device and provide thorough vulnerability assessment of hospitals and medical centres; (iv) The delivery of an Observatory for the Security of Electronic Medical Devices; an intelligent knowledge base accessible by different stakeholders, providing advanced visualisations for each threat identified in RAMA and facilitating global awareness on EMD-related threats. Last, HEIR will set up a broad European network for establishing good security practice in all regulatory frameworks to reduce market access.  

LIFEBOTS Exchange - creating a new reality of care and welfare through the inclusion of social robots.

The project aims enhancing cross-sector, international and interdisciplinary collaboration in the area of social robotics technology for care. Are robots ready for society, and is society ready for robots? How can social robots can be included in people’s lives? Robots are increasingly being used in the healthcare sector as a potential solution to the current and future challenges faced by the healthcare sector.  Due to the global population ageing, by 2035 the world is projected to lack 12.9 million healthcare professionals (WHO: 2013). Social robots may benefit the quality life and wellbeing of patients, their families and healthcare professionals. Evidence and much of the needed knowledge are still lacking. Strong interdisciplinarity and cross-sectorial research and innovation activity is needed. A knowledge hub for social robotics will be created with a threefold aim: (1) To enhance the competencies of involved staff members, refining and focusing their skills; (2) To build a tri-sectoral network involving academia, industry and users of technology, and (3) to create an enduring network that will outlive the grant funding. The core of the project includes some of the strongest actors in international research, SMEs and user organisations, focusing on three  activity lines: technological, sociological, care-and-welfare. To be able to understand the impact of introducing social robots in care, the three areas that will be affected by this technical evolution will be researched: (1) care provided as medical practice; this is the care given to patients in hospitals, clinics, rehabilitation centres and other medical facilities. (2) residential care - this area refers to all care institutions accepting patient/clients as residents: elderly homes, nursing homes, special needs schools for children or adults, etc. (3) family care, investigating how social robots can be implemented in the home, and as a part of domestic life. 

Advanced Secure Cloud Encrypted Platform for Internationally Orchestrated Solutions in Healthcare

The vision of ASCLEPIOS is to maximize and fortify the trust of users on cloud-based healthcare services by developing mechanisms for protecting both corporate and personal sensitive data. The core idea of the project is derived from two observations. The first is based on an extensive analysis of the market on currently available cloud-based health services that aim to preserve users’ privacy without sacrificing functionality. From this study, we observed the following: “Once data is placed on the cloud in an unencrypted form or encrypted with a key that is known to the cloud service provider, data privacy becomes an illusion”. The second observation is based on the consideration of the latest advancements in cryptography. More precisely, one of the saddest but at the same time most fascinating things about cryptography is how little cryptography we actually use. While researchers have developed many theoretical models that could enhance the security level of healthcare services, only a rudimentary set of techniques are currently in use. ASCLEPIOS is addressing these limitations by utilizing several modern cryptographic approaches to build a cloud-based eHealth framework that protects users’ privacy and prevents both internal and external attacks. ASCLEPIOS also offers the ability to users to verify the integrity of their medical devices prior using them while at the same time receiving certain guarantees about the trustworthiness of their cloud service provider. Furthermore, ASCLEPIOS offers a novel solution through which healthcare practitioners and medical researchers are able to calculate statistics on medical data in a privacy-preserving way. Finally, a list of activities with the aim to raise security awareness within the healthcare industry will be organized by project. All these results will be showcased by three real-life near production quality demonstrators provided by ASCLEPIOS healthcare partners, involving three leading European hospitals.

Testing the value of a novel strategic approach and its cost efficacy to improve the poor outcomes in Cardiogenic Shock

Heart attacks are common and can leave survivors suffering cardiogenic shock (CGS), with its extremely high risk of early death (42% versus 4% for non-CGS) and high incidence of  chronic heart failure, with its associated socio-economic disease burden (ill-health, recurrent heart failure admissions, no return to full time activities, need for expensive therapeutic devices and life-long drugs). Outcomes from CGS are even worse in, females, the elderly (mortality>70%) and high risk sub-groups. The incidence of CGS in Europe alone is >50 000 patients pa. This unacceptably high mortality/morbidity rate represents a true unmet clinical need. No clear strategy exists to improve outcomes, with ad hoc therapies given too late in a spiralling, irrecoverable process. EURO SHOCK aims to improve outcomes for CGS patients. At its core is a robust phase3 randomised trial comparing a novel strategy of very early use of ECMO (Extracorporeal Membrane Oxygenation) to current standard of care. Evidence suggests very early ECMO will halt the spiral of decline and so significantly reduce 12 month death rate and need for heart failure re-admissions. Since both costs of CGS, and ECMO are high a health-economic cost efficacy analysis will be core. A cardiac magnetic resonance imaging sub-study will test novel protocols in sick patients and provide mechanistic data. We will test transfer networks for CGS patients and analyse ECG data to determine which patients benefit most from early transfer. Our multidisciplinary consortium comprises renowned physician-scientists, statisticians, health economists and technology providers, including specialised ECMO SME.  EURO SHOCK will impact on heart attack survivors, healthcare providers and Europe`s medical technology sector by 1) reducing healthcare costs associated with CGS 2) provide novel cost effective framework for cardiac interventions 3) delivering innovative healthcare technologies and 4) informing guidelines for effective CGS intervention. 

0 antall prosjekter

CL1-Health

The first European Digital Health Technology Assessment framework co-created by all stakeholders along the value chain

Tildelt: kr 21,5 mill.

Prosjektperiode: 2024-2027

Sted: Troms - Romsa - Tromssa og 2 andre

CL1-Health

Partnership for the Assessment of Risks from Chemicals

Tildelt: kr 79,8 mill.

Prosjektperiode: 2022-2029

Sted: Troms - Romsa - Tromssa og 5 andre

H20-FET-Future and Emerging Technologies

OrganVision: Technology for real-time visualizing and modelling of fundamental process in living organoids towards new insights into organ-specific health, disease, and recovery

Tildelt: kr 14,6 mill.

Prosjektperiode: 2021-2025

Sted: Troms - Romsa - Tromssa

H20-HEALTH-Health, demographic change and wellbeing

Human, technical and political factors for better coordination and support of e-health in Africa

Tildelt: kr 11,2 mill.

Prosjektperiode: 2021-2022

Sted: Troms - Romsa - Tromssa og 4 andre

H20-HEALTH-Health, demographic change and wellbeing

Watching the risk factors: Artificial intelligence and the prevention of chronic conditions

Tildelt: kr 28,2 mill.

Prosjektperiode: 2021-2024

Sted: Troms - Romsa - Tromssa og 3 andre

H20-HEALTH-Health, demographic change and wellbeing

Gravitate–Health: Empowering and Equipping Europeans with health information for Active Personal Health Management and Adherence to Treatment

Tildelt: kr 32,1 mill.

Prosjektperiode: 2020-2025

Sted: Oslo og 3 andre

H20-SECURITY-Secure societies - Protecting freedom and security of Europe and its citizens

A SECURE HEALTHCARE ENVIRONMENT FOR INFORMATICS RESILIENCE

Tildelt: kr 5,7 mill.

Prosjektperiode: 2020-2023

Sted: Troms - Romsa - Tromssa og 2 andre

H20-MSCA-Marie Sklodowska-Curie actions

LIFEBOTS Exchange - creating a new reality of care and welfare through the inclusion of social robots.

Tildelt: kr 2,1 mill.

Prosjektperiode: 2019-2023

Sted: Troms - Romsa - Tromssa og 2 andre

H20-HEALTH-Health, demographic change and wellbeing

Advanced Secure Cloud Encrypted Platform for Internationally Orchestrated Solutions in Healthcare

Tildelt: kr 6,3 mill.

Prosjektperiode: 2018-2022

Sted: Troms - Romsa - Tromssa

H20-HEALTH-Health, demographic change and wellbeing

Testing the value of a novel strategic approach and its cost efficacy to improve the poor outcomes in Cardiogenic Shock

Tildelt: kr 2,8 mill.

Prosjektperiode: 2018-2022

Sted: Troms - Romsa - Tromssa