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Research Outcomes
Explore DREAM+PLAN doctoral candidate research advancing resilience, restoration, and regenerative futures.
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Three-Eyed Seeing: A framework for regenerative ecological design
Korey Wetherell, Chris Speed, Laura Albareda
Key words: Three-Eyed Seeing, regenerative ecological design, Indigenous knowledge systems, renewal of social-ecological systems.
DOI - https://doi.org/10.21606/drs.2026.1880
Three-Eyed Seeing: A framework for regenerative ecological design | Zenodo
Building Capability for AI Adoption through Strategic Decision-Making and Policy
Tauroseviciute-Ribikauske, Indre: Petraite, Monika; Ceicyte-Pranskune, Jolita.
The twin transition in post-Soviet innovation systems is often constrained by foundational inhibitors that dictate structural growth. This research utilises ISM and Fuzzy-MICMAC to identify leverage points within the Lithuanian ecosystem based on expert interviews.
DOI:https://doi.org/10.5281/zenodo.22257341
Building Capacity for AI Adoption through Strategic Decision-Making and Policy | Zenodo
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Regenerative Innovation in Firms: Emerging Practices and a Future Outlook
Mention, Anne-Laure; Kryzhanivska, Kateryna; Altrock, Sophie.
Sustainability has become a central principle for innovation and technology management, with firms investing heavily in clean technologies, resource efficiency, and innovation driven by environmental, social, and governance (ESG) principles. Unfortunately, sustainability—primarily focused on reducing harm—is insufficient to address escalating climate and societal challenges. Increasingly, scholars and practitioners advocate for a transition toward regenerative innovation, which goes beyond sustainability and offers a long-term regenerative value for businesses, society, and the planet.
DOI:https://doi.org/10.1080/08956308.2026.2705125
Regenerative Innovation in Firms: Emerging Practices and a Future Outlook | Zenodo
Greenhouse Gas Emissions and Financial Performance in Shipping Decarbonisation
Huong Le, Petri Helo, Khuram Shahzad, Vinh Thai, Aswini Yadlapalli
The shipping industry is a critical backbone of international trade, but also a major source of
greenhouse gas (GHG) emissions. The sector accounts for over 80% of world merchandise trade
by volume and causes 5% of GHG emissions (UNCTAD, 2025). These gases, with carbon dioxide
(CO2) being a dominant component, contribute to global warming. In response to this issue,
IMO introduced its GHG reduction strategy in 2018 and accelerated its decarbonisation ambitions
in 2023 through stricter targets. As part of this strategy, measures and solutions have been
analysed and adopted, including the Carbon Intensity Indicator, cleaner fuels, and fuel
technology (Ma, Zhe and Xiao, 2025). However, shipping is predicted to reduce GHG emissions
only by 40-75% in 2050, falling short of the IMO 2050 net-zero GHG target (Laskar, Dowlatabadi
and Giang, 2025.
DOI - https://doi.org/10.5281/zenodo.23234392
Greenhouse Gas Emissions and Financial Performance in Shipping Decarbonisation
Molecular Preorganization Unlocks Reversible Solid-State Photoconversion in Dianthrylnaphthalene-Based Molecular Solar Thermal Systems
Baggi, Nicolo; Muhammad, Lidiya M.; Holzel, Helen; Fei, Liang; Salthouse, Rebecca; Kubus, Mariusz; Plutzar, Sarah; Jonansen, Magnus Bukhave; Mikkelsen, Kurt V.; Pedersen, Kasper Steen; Moth-Poulsen, Kasper.
Molecular solar thermal (MOST) systems capable of harnessing sunlight, storing it as chemical energy in the form of a photoisomer, and releasing it as thermal energy on demand represent a promising strategy for renewable solar energy utilization both in liquid-based devices and the solid state. However, the implementation of MOST materials in the solid state is limited by restricted molecular motion in the condensed phase, which hampers the geometrical requirements for photoisomerization, as well as by inner filter effects which can prevent quantitative photoconversion or necessitate long irradiation times.
DOI - https://doi.org/10.1002/anie.1015605