This research will support the development of the Eco-Industrial Park and Ontario East Wood Centre (EOWC), which is under development in the Township of Edwardsburgh/Cardinal. The EOWC is an innovative approach to revitalizing the regional economy by adding value to the under-utilized renewable forest resource in the area. A critical gap in information required by potential investors will be addressed. Sources and quantities of available forest-based biomass within a 120 kilometer radius around the EOWC will be assessed.
Interest in adopting biomass conversion technologies to produce renewable biofuels and chemicals in Newfoundland and Labrador (NL) is strong, fueled by recent closers in the pulp and paper sector, and, stemmed by availability of substantial forest biomass such s lo-quality wood chips in logging and sawmill operations. The NL Department of Natural Resources recognizes that although there is a substantial feedstock and opportunities, the nature of biomass generated in NL (quality, volumes, etc…) and the optimal conversion technologies for application in NL are largely unidentified.
Climate models project that summers in the southwest Yukon will become increasingly warmer and drier, leading to more forest fires, a longer fire season and slower tree growth. This raises the question of how to manage forest resources sustainably so that they will continue to provide long-term benefits to local communities.
Starting in April 2009, six storey (mid‐rise) high wood frame buildings will be allowed in certain regions of Canada. This will be a new experience to design engineers in Canada, and research is required to support this new development which will expand the use of wood products beyond the traditional low rise, primarily residential construction market.
Trees uprooted or broken during severe wind events routinely cause power outages in BC. Some researchers believe that climate change will result in more storms in BC. We will investigate the weather conditions that lead to strong winds. Using BC Transmission Corporation’s power outage database, we will examine patterns of outages in space and time, identify the weather, terrain and vegetation conditions associated with these outages, and produce models that will predict the likelihood of an outage at a given location.
This project with the BC Ministry of Forests and Range intends to use almost entirely existing stand spatial data and snow-melt data to model early season water availability in mountain pine beetle (MPB) affected stands. The resultant canopy loss due to the MPB is likely to have an influence on the volume and timing of snow melt and, consequently, on water availability.
Considerable information has been acquired on soil dynamics in areas under oil sands reclamation and a variety of models have been developed that simulate moisture dynamics and ecosystem productivity. However, to date, nutrient and moisture dynamics have been considered largely in isolation; for models to be useful in reclamation, they need to be capable of representing how soil moisture influences nutrient cycling, how available moisture limits vegetation growth and how ecosystem development can change nutrient cycles and moisture dynamics.
Extensive portions of the productive forests in coastal British Columbia display below-average timber productivity possibly due to excess soil water. In particular, conifers regenerating on some western red cedar/western hemlock sites on northern Vancouver Island show very slow growth and nutrient deficiencies after harvest. The research team hypothesizes that the low nutrient supply is caused by inadequate drainage in these sites which results in anoxic conditions and lower mineralization of carbon and nutrient.
Forest soils are a significant sink for the greenhouse gas, CO2. Concerns over climate change have led to increased interest in methods to increase the forest C sink. Fertilization of forests has been demonstrated to increase productivity of many forest types and this has an associated benefit of increased C sequestration in biomass. There is mounting evidence that N fertilization will also increase C sequestration in soil as more and more little material is produced. N also appears to interfere with the decomposition of this litter.