Understanding and Assessing Impacts
The Power To Be Basecamp site is located on the shore of Prospect Lake, and encompasses a diversity of ecosystem types including wetlands, upland coastal Douglas fir forest, and historic Garry oak meadows. These ecosystems established the foundation for restoration efforts, which also aimed to improve ecosystem services. In advance of planning and design, MDI undertook a series of hydrological, environmental, and land-use assessments to identify the impacts on the land resulting from the previous use as a golf course. Watershed and other on-site water management studies were completed, to compare existing water conditions to historic patterns, and were used to inform grading strategies and earthwork.
While the site had experienced ecological disruption from the past development, it also contained areas of intact forest that held significant natural value. Seasonal site explorations, mapping of ecological and microclimatic systems, and assessments of flora and fauna guided restoration efforts and nature-based educational programming opportunities. In addition to environmental impact assessments, social and accessibility studies were conducted to identify user needs and inform design requirements, with the project targeting Gold-level certification under the Rick Hansen Foundation Accessibility Certification (RHFAC) program. Power To Be serves individuals with a wide range of physical and cognitive abilities, requiring early investigations to consider how people move through and experience space in ways that extend beyond typical ADA-based accessibility standards. Rather than focusing solely on universal comfort and access, MDI also explored opportunities to support progressive challenges — enabling people of varying abilities to engage with outdoor landscapes and activities that might otherwise be perceived as inaccessible. Collaboratively with Power To Be – incorporating additional input from their participants – these investigations helped define how the design of the landscape can provide inclusive participation in nature-based programming, such as camping, canoeing, backpacking, and outdoor play.
Use of climate information in decision-making
While detailed climate data was not directly applied during the design process, climate considerations informed several key decisions through broader observations of changing conditions, particularly increasing summer heat. For instance, MDI intentionally established a connected tree canopy along primary pathways linking the parking area to the main buildings to allow mature trees to eventually provide continuous shade and improve thermal comfort as temperature rises. Likewise, plant species selection was informed by expected climate conditions to support a regenerative and adaptive ecosystem. MDI considered both current ecological limits and anticipated changes to inform the planting strategy, prioritizing species expected to thrive under changing climatic conditions, which included species from Victoria’s historic Garry oak ecosystem. While these species currently exist near the northern limit of their range, they are expected to expand under future climate scenarios.
Stormwater management decisions were similarly informed by general projected precipitation trends, and were designed intentionally to mimic the site’s natural hydrology. Early planning assumptions suggested that runoff from the site flows directly toward Prospect Lake. Through analysis of GIS LiDAR data, watershed mapping, and stream datasets, MDI conducted a watershed flow analysis that identified a sub-watershed within the site boundaries, revealing that natural drainage flowed instead toward a small stream that feeds Bleathman Creek, before reaching Prospect Lake. With these insights, MDI, in collaboration with engineering partners, designed an integrated stormwater system to maintain the natural volume of water flow, where runoff is directed first through an extensive rain garden ‘treatment train’ and then is filtered and slowed before entering Bleathman Creek. Working with the natural capacity of the watershed to manage rainwater in this way will help to restore historic waterflow and support the health of the watershed, while also increasing resilience to fluctuating and projected stormwater volumes under future climate conditions.