AI innovation at UBC Okanagan helps shipping ports see what’s coming—literally
Peer-Reviewed Publication
Updates every hour. Last Updated: 11-Nov-2025 00:11 ET (11-Nov-2025 05:11 GMT/UTC)
A UBC Okanagan research team has developed an innovative artificial intelligence system that can accurately predict where ships are heading and arriving, potentially helping Canadian ports better prepare for incoming vessels and respond more efficiently to global supply chain disruptions.
Dr. Zheng Liu, a Professor with UBCO’s School of Engineering, and doctoral student Chengkai Zhang have created TrajReducer, a framework that increases prediction accuracy and computational efficiency by analyzing ship trajectories through advanced spatial clustering and cross-dimensional metadata ranking.
Over recent centuries, the intensification of land use has caused the loss of natural sponge functions in landscapes. River straightening, bank stabilisation and embankments disrupt the natural exchange of water with the floodplains, which not only absorb and slowly release water during droughts but also provide diverse habitats, nature-based flood protection, and valuable recreational areas. Restoring wetlands is vital in addressing the climate and biodiversity crises.
The "SpongeBoost" project supports policy-making, restoration, and land-use planning, promoting cost-effective, nature-based solutions that align with EU Climate Adaptation goals. With the establishment of the “SpongeBooster of the Year” award, the project aimed to spread recognition for those committed to restoring sponge landscapes, assessed not only on implementation but also on public relations, environmental education, and regional cooperation.
Over recent centuries, the intensification of land use has caused the loss of natural sponge functions in landscapes. River straightening, bank stabilisation and embankments disrupt the natural exchange of water with the floodplains, which not only absorb and slowly release water during droughts but also provide diverse habitats, nature-based flood protection, and valuable recreational areas. Restoring wetlands is vital in addressing the climate and biodiversity crises.
The "SpongeBoost" project supports policy-making, restoration, and land-use planning, promoting cost-effective, nature-based solutions that align with EU Climate Adaptation goals. With the establishment of the “SpongeBooster of the Year” award, the project aimed to spread recognition for those committed to restoring sponge landscapes, assessed not only on implementation but also on public relations, environmental education, and regional cooperation.
The University of Texas at Arlington has awarded funding to research teams to launch new investigative projects. The Research Enhancement Program (REP), administered by UTA’s Office of Vice President for Research and Innovation, offers seed funding to investigators to help them test new ideas and explore new directions that could lead to future innovations and more competitive proposals for external funding from federal agencies and nonprofit foundations.
In our research series, we highlight six of these grants.
This special issue on Carbon Capture, Utilization, and Storage (CCUS) addresses the critical role of CCUS in mitigating climate change by bridging energy needs and environmental goals. It explores various aspects of CCUS, including enhanced oil recovery (EOR) technologies, geological storage mechanisms, and CO2 utilization methods. The articles delve into factors influencing CO2-EOR efficiency, innovative materials for profile control in high-temperature applications, and the potential of mineralization-driven storage in sandstones and shales. Additionally, the issue examines safety concerns related to wellbore integrity and proposes solutions for long-term infrastructure durability. Contributions also highlight the development of CO2-mineralized materials from industrial waste, showcasing the integration of decarbonization and waste management. This collection of research aims to foster meaningful discussions and guide future investigations in the field of CCUS.
This article explores a new therapeutic approach for rheumatoid arthritis (RA) using a combination of triptolide and medicarpin. Recent research published in Engineering reveals that targeting the m6A methylation pathway can significantly reduce bone destruction associated with RA. The study demonstrates that the combined use of triptolide and medicarpin effectively inhibits osteoclastogenesis and modulates inflammation, offering a potential strategy to improve treatment outcomes and minimize side effects in RA patients.