Considerable advances in geological and rock engineering mapping methods using both conventional and remote sensing techniques have occurred over the last decade. The primary objective of the proposed research is to further develop the use Virtual and Mixed Reality (VR/MR), techniques in improving structural geological and rock mass field data acquisition. New uses of MR and Virtual Reality, VR, methods will be explored in combined field and office settings.
The goal of this research is the development and operationalization of new hazardous ice mapping technology to mitigate impacts of warmer winters and springs on sea-ice travel in Arctic communities. In partnership with the northern social enterprise, SmartICE, we will develop the capability to detect and map slush and incorporate the technology into their mobile sea-ice thickness mapping system - the SmartQAMUTIK.
The specific investigation of the redox conditions of the Green Point Formation sediments will allow modelling the paleoceanographic conditions on a global basis particularly because the investigated formation is the Cambrian?Ordovician GSSP, which adds to the value of the contributions of the study to understanding the global distribution of source rocks around that time interval.
The North Coast Innovation Lab (NCIL) is a place-based initiative for people who are invested in the future of Prince Rupert to work together on tangible projects and initiatives that build a resilient economy as a tool for community well-being. Forthcoming student Project Coordinators provide capacity to the efforts of the NCIL through action-research, project prototyping/piloting, social innovation methodology application & understanding, and community learning activities and presentations reflecting the efforts and outcomes of the NCIL.
Rivers naturally shift and move through lateral erosion and deposition, which can cause problems for infrastructure that is built on riverbanks. Traditional engineering solutions have entirely halted lateral movement, which can have negative consequences. This research is investigating an alternative method, which uses grains that are within the grain size distribution of the riverbed, rather than the method known as riprap, which are much larger grains. This research will use a flume to model the Nicola River, alongside computer models.
Spirit bears are a valuable symbol of the Great Bear Rainforest in British Columbia. These white bears are an economically and culturally important resource that require effective monitoring to ensure their perpetuation. Safeguarding the future continuation of white bears additionally requires understanding both how the white bear allele is perpetuated and how healthy these populations are. One important component of population health is genetic variation. Genetically variable populations are able to adapt to changing threats better than genetically depauperate groups.
Urban streams are prone to flooding and bank erosion as a result of the large amount of stormwater that is transported into the channel across the paved floodplain. Many streams in urban areas are being restored to a more natural state so that they are able to accommodate flood pulses as well as to increase habitat areas in and around the channel. Prior to the installation of restoration designs in urban areas, it is necessary to test that they will hold up under a range of flows and sedimentation.
Over the past 25 years researchers at the UBC Geophysical Inversion Facility (GIF) have generated forward modelling and inversion codes that deal with most types of data of interest to a consortium of mining companies. This proposal moves the research to applications in their corporate environments, and to advance the tools and understanding about how to use the research to date in an efficient manner to extract maximum information from their geophysical data. GIFtools, the computing software for carrying out advanced inversion, was developed for this purpose.