Georgia Strait Alliance is seeking to undertake the creation of a framework and baseline analysis of indicators that reflect the current health and resilience of City of Vancouvers waterfront over a broad cross-section of themes in order to further the objectives of their Waterfront Initiative (WI) project. Urban waterfronts globally are complex with multiple governing authorities, overlapping jurisdictions, and varying interests, all of which lead to a high degree of land-use conflict.
The objective of this project is, firstly, to evaluate the performance of various adsorbents using various techniques for gas separation and purification applications of commercial interest; and secondly, to optimize and modify the current PSA setup at Xebec Ads. Company. The proposed project will examine various adsorbents provided by Xebec Adsorption Inc. to determine their adsorption capacity, kinetics, selectivity, at different operating conditions.
The goal of the research undertaken as part of this project is to develop a system to measure soil properties in the field based on near infrared light reflectance. Using machine learning, the complex near infrared data can be turned into valuable soil analytical data. By supporting this research, Route 7 Inc. will obtain an innovative portable soil measurement system that will provide data on soil immediately in the field for much cheaper than currently used laboratory analytical testing. Using this system, Route 7 Inc.
Just months the June 2014 the Supreme Court of Canada decision granting partial title to the Tsilhqotin First Nations land claim, the communities of Xeni Gwetin and Yunesitin, with support form the Tsilhqotin National Government, declared another traditional area, just beyond the granted claim, as the Dasiqox Tribal Park. The surface area of the new park contains a barrier to Tsilhqotin self-governance in the form of an undetermined amount of mineral claims staked under the mineral tenure system of British Columbia.
A myriad of environmental stressors are threatening freshwater ecosystems. However, monitoring the impacts of these stressors on economically and culturally important native fish populations remains a challenge. Ontario is a large province with hundreds of thousands of lakes, yet knowledge of ecological structure across lakes is limited, particularly for remote lakes in the Far North. The proposed research seeks to develop new, cost-effective indicators of fish population and freshwater ecosystem change, which are based on food web theory.
The goal of this project is to develop the first ever high definition integrated water circulation and water quality model for the Toronto Waterfront. As one of the most urbanized freshwater ecosystems with complex geometries and physical processes, Toronto Waterfront is in an urgent need for modern scientific tools that can support effective environmental management strategies and inform design of costly new development and restoration projects that have considerable socioeconomic implications.
This project is to help SaskEnergy characterize the pollutant transport behaviors under the remediation process of SVE through advanced modelling system. Such a modelling system employs a series of stochastic analysis methods to quantify the random features in the subsurface at Cantuar site such as the porosity, hydraulic conductivity and so on. Then, relationships (or functions) between SVE control variables and pollutant concentrations are generated through advance statistical methods.
The development of the oil sands has led to a large consumption of freshwater in Canada. The wastewater that is produced is contaminated with many industrial pollutants leading the provincial government of Alberta to issue a zero-discharge policy for untreated wastewater. This project will investigate treatment wetlands as an option for reclaiming oil sands-related wastewater.
For this project the intern will place a predator owl deterrent at the base of a wind turbine and hang nest boxes at a distance of at least 200 m from a wind turbine. The expected result of implementing the predator owl and the nest boxes will be a decline in bird mortalities occurring at three wind-energy sites in Nova Scotia. These sites will be monitored for 12 weeks during spring and fall 2016 bird migration periods (May 16th June 10th & August 15th October 7th).
Proposed developments (pipelines, super-tankers) along the coast of BC have the potential to negatively impact (shell)fisheries. Direct monitoring of fisheries can only detect negative impacts which have already occurred; therefore, indicator species (meiofauna) and environmental variables are monitored to detect disturbances before productivity is impacted. Our project will monitor intertidal ecosystems (numerous species and environmental variables) spanning the entire coast of BC, across a gradient of human impacts, long term.