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1.
Ocean Engineering ; 272:113617.0, 2023.
Article in English | ScienceDirect | ID: covidwho-2245684

ABSTRACT

This paper reviews research in ocean engineering over the last 50+ years with the aim to (I) understand the technological challenges and evolution in the field, (II) investigate whether ocean engineering studies meet present global demands, (III) explore new scientific/engineering tools that may suggest pragmatic solutions to problems, and (IV) identify research and management gaps, and the way forward. Six major research divisions are identified, namely (I) Ocean Hydrodynamics, (II) Risk Assessment and Safety, (III) Ocean Climate and Geophysics: Data and Models, (IV) Control and Automation in the Ocean, (V) Structural Engineering and Manufacturing for the Ocean, and (VI) Ocean Renewable Energy. As much as practically possible research sub-divisions of the field are also identified. It is highlighted that research topics dealing with ocean renewable energy, control and path tracking of ships, as well as computational modelling of wave-induced motions are growing. Updating and forecasting energy resources, developing computational methods for wave generation, and introducing novel methods for the optimised control of energy converters are highlighted as the potential research opportunities. Ongoing studies follow the global needs for environmentally friendly renewable energies, though engineering-based studies often tend to overlook the longer-term potential influence of climate change. Development and exploitation of computational engineering methods with focus on continuum mechanics problems remain relevant. Notwithstanding this, machine learning methods are attracting the attention of researchers. Analysis of COVID-19 transmission onboard is rarely conducted, and 3D printing-based studies still need more attention from researchers.

2.
2021 ASEE Virtual Annual Conference, ASEE 2021 ; 2021.
Article in English | Scopus | ID: covidwho-1696283

ABSTRACT

Experiential, team-based course projects, with an emphasis on designing and building physical products, are increasingly being adopted across many engineering disciplines, including wide use in ocean engineering courses. COVID-19 presents new challenges to pedagogies that rely heavily on physical production and face-to-face teamwork. While collaborative, hands-on projects, such as designing and building ROVs, have many documented educational gains-deepening content understanding and improving motivation, to name a few-these once beneficial activities are currently infeasible. The complications brought on by the pandemic necessitate the creation of new course projects that heed social distancing guidelines, minimize touch, and accommodate remote learners, all while continuing to enhance student learning. In the Fall of 2020, our small liberal arts university reopened its classrooms for in-person teaching and learning. While most students elected to return to the physical classroom, some chose to learn remotely, resulting in a large number of hybrid course offerings. The potential for a spike in COVID-19 cases in the campus community meant that courses could pivot to fully remote teaching and learning at any moment. In response to this new pedagogical framework, the semester-long course project for an upper-level ocean engineering course was reinvented. The project was inspired by Wired Magazine's video series “5-Levels” in which experts explain a topic to a child, teenager, undergraduate, graduate student, and an expert in their field. This fall, students worked individually to create a video series in which they explained a self-selected advanced topic in ocean engineering to three distinct audiences of their choosing. The success of the new course project is assessed through analysis of students' videos, reflection papers, peer evaluations, and course surveys. More specifically, the aim of this work is to explore the efficacy of the project in meeting a variety of learning outcomes, including enhancing 21st century skills in audiovisual communication, and deepening the students' knowledge of ocean engineering concepts. Finally, this paper shares lessons learned and provides recommendations for future implementations of this course project. © American Society for Engineering Education, 2021

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