Research Portal
Displaying 1 – 10 of 59 results
Geoscience » Source Rock & Depositional Environment
Identifying and Constraining favourable paleoenvironments for the deposition of an Upper Jr SR using geochemical proxies (part of the PAGEO research program)
January 2021 – June 2023
This work will determine the paleoenvironmental conditions under which potential Upper Jurassic source rock intervals were deposited in offshore Nova Scotia.
Geoscience » Source Rock & Depositional Environment
Application of a source-to-sink sediment model to a petroleum systems analysis from field studies and numerical modeling (part of the PAGEO research program)
January 2021 – March 2023
This project will test the application of a source to sink analysis to the prediction of petroleum system elements in the Scotia Basin.
Geoscience » Source Rock & Depositional Environment
Central Atlantic Paleo-Oceans and Climates (CAPOC) (part of the PAGEO research program)
December 2020 – December 2022
CAPOC aims to develop the first integrated and high resolution biostratigraphic and isotopic proxy correlation for key intervals of the Jurassic/Cretaceous across the Central Atlantic conjugate margin.
Geoscience » Source Rock & Depositional Environment
Palaeobathymetry and Tectonic Evolution of Lower Jurassic Source Rocks of the Conjugate Nova Scotia-Moroccan Margins (part of the PAGEO research program)
December 2020 – July 2022
This project will address key questions related to the formation processes, structure and subsidence history of the Nova Scotia rifted margin, which are relevant to constrain the Upper Triassic to Jurassic palaeogeography and petroleum systems offshore Nova Scotia.
Geoscience » Source Rock & Depositional Environment
A Spatiotemporal Analysis of Paleobiogeographic Data to Constrain the Timing of Oceanic Connections between the Atlantic, Tethyan, and Pacific domains (part of the PAGEO research program)
November 2020 – May 2022
This project is based on a large-scale collection of previously generated Jurassic and Early Cretaceous nannofossil biostratigraphic data and aims to apply both traditional micropaleontological methods and modern data science methodologies to the in-depth analysis of that large dataset.
The Vectron2 Project: Turbulence Measurements for the In-stream Tidal Energy Industry
March 2019 – November 2021
The Vectron is a new sensor used for measuring turbulence velocity within a tidal turbine’s swept area. The Vectron has been successfully prototyped, where next steps are to take the technology to the ‘industry-ready’ stage of development and the focus of this project.
Geoscience » Source Rock & Depositional Environment
Tracking Mesozoic Paleoclimate Events on the Nova Scotia Margin: Integrating Biostratigraphic Legacy Data with New Stable Carbon Isotope Analyses (part of the PAGEO research program)
November 2020 – November 2021
This study will obtain empirical evidence for climatic perturbations and regional changes in oceanic circulation patterns by (1) acquiring an extensive dataset of stable isotope measurements from key wells located in the area of interest, (2) integrating these measurements with existing quantitat
Real-Time Detection of Marine Mammals in High Flow Environments
May 2019 – September 2021
The project research goal is to design and test an innovative acoustic sensor system that will feature a wireless magneto-inductive (MI) communications link – to alert users in real time of the presence and location of marine mammals in high noise tidal environments. The research entails a field
Participation in the Pathway Program through Development of the Platform and Cabling Solution
February 2020 – September 2021
The Pathway Program - Cable & Platform Development / Sensor Integration
The Pathway Program: Validating reliable environmental monitoring for ocean energy projects
April 2019 – October 2021
OERA created The Pathway Program to solve a critical problem impeding the in-stream tidal energy industry: a lack of reliable and validated technologies and methods to monitor and report fish-turbine interactions in high-flow, highly turbulent environments, leading to regulatory uncertainty and i