Full Living Certified


The Bill Fisch Forest Stewardship and Education Centre (BFFSEC) is designed to be an integral part of one of the most successful forest regeneration projects in the world with the purpose of helping residents of York-Region, and the extended community, learn about the importance of natural resources and forest ecosystems.

The DIALOG Project Team with the Regional Municipality of York, and corresponding Natural Heritage and Forestry team, worked closely to design spaces and environments that people want to be in, and created a design that is exemplary of performance and sensitive to the environment it inhabits.  For the BFFSEC, the building was always conceived of being “of the forest”, and not “in the forest”.

The design team worked diligently throughout the project’s development to optimize its sustainability. The building removes the boundaries between the structure and the forest, creating a building that reflects the site and the ecosystem. The structure has been designed for an almost 100-year lifecycle, respecting the heritage and legacy of the forest. The building’s design, details and function blend together with the natural history of the site.

From the beginning of the project, there were four key areas identified for integration:

  • Energy: the facility runs primarily on the electricity generated by solar panels
  • Water: the facility captures rainwater, returning it to the watershed as clean as when it entered the facility.
  • Place: the facility is uniquely rooted in its place, reflecting the natural landscapes that surround it.
  • Beauty: the facility provides delight and wonder, inspiring all who visit it and reinvigorating visitors’ and occupants’ connection to the natural world.


Certification StatusLiving Certified
Version of LBC2.1
LocationWhitchurch-Stouffville, Ontario, Canada
Project Area3,897 SF
Start of OccupancyApril 2016
Owner OccupiedYes
Occupancy TypeEducation, Administration
Number of Occupants2


OwnerRegional Municipality of York
Owner RepresentativeEnvironmental Promotion and Protection of Environmental Services Dept.
Project Director/ManagerRegional Municipality of York
ContractorStruct-Con Construction Ltd.
Lighting DesignDIALOG
CivilMTE Consultants Inc.
Interior DesignDIALOG
Specialty ConsultantsMTE Consultants Inc. – Air Testing, WSP MMM Group – Building Envelope Commissioning, Ted Kesik – Envelope Consultant
Key SubcontractorsHoneywell Building Solutions, A1 Service Group, Independent Mechanical Supply Inc., Acuity Brands Inc.


Photo Courtesy of Cindy Blazevic


The Bill Fisch Forest Stewardship and Education Centre is built on a previously developed site surrounded by a 90 year-old forest.

The approach to the site planning and landscape design is of an ecological focus, where site elements and plant materials are thoughtfully integrated into the existing mature forest.  The result is a site that supports the ecological education mandate of the site in both a functional and demonstrative manner.

The site spaces are designed to support interaction, collaboration and learning in a natural outdoor setting.  An outdoor classroom space is located in the centre of the woodland garden, which has been planted with an entirely native palette of plant materials.  These species complement and enhance the surrounding mature forest landscape.  Grading and stormwater management promote natural infiltration and minimize erosion of soil, mimicking the natural condition of the site.

The overall intention for the planting approach and plant species selection for the site is to enhance the existing and established vegetation.  The forested site context is complemented by the proposed plant palette of native trees and shrubs that are commonly found in the immediate site vicinity.  A layered approach to the planting includes both canopy and understory vegetation, reflecting the natural successional process of the surrounding forest.  Native vines and naturalized grass seed mixtures are visually appealing and ecologically appropriate.


The building construction and site work slightly modify the footprint of current development, enhancing the educational capacity of the site.  The project site is surrounded on four sides by old-growth forest that is sustainably managed by York Region. Forestry experts on the project team reviewed the site plan to confirm that ecological systems were not disturbed.

The project has avoided development in the 100-year flood plain and other areas of concern.  A map of Regulated Areas from the Lake Simcoe Region Conservation Area (LSRCA) was overlaid on the site to confirm that development is not located in the 100-year flood plain.


As the Transect is classified as L1, Natural Habitat Preserve, the project is not required to include an agriculture element on the site.  However, urban agriculture opportunities were discussed with the project team as part of the Integrated Design Process.  It was realized that with a limited site area, any space and organizational resources dedicated to agriculture would require a tradeoff for program area dedicated to forestry and education.  There is currently no plan for agricultural activity on-site. However, York Region is planning for educational content dedicated to agriculture as well as ongoing partnerships with local farm groups.  A forest ‘fungus harvest’ is being considered, which would allow for agricultural activity on the site.


York Region has created a program dedicated to Environmental Land Protection and Preservation.  The goal of this program is to protect core natural areas and restore linkages with a target to pursue a minimum of four sites or 60 hectares of land annually. The program was refined in 2012 and in its first implementation year (2013) achieved protection of 120 hectares.

York Region has maintained Council endorsed partnership agreements with Nature Conservancy of Canada and Oak Ridges Moraine Land Trust since 2001 and 2002 respectively. Over 61 percent of environmental lands protected through York Region Environmental Land Protection and Preservation initiatives are a result of these two strategic partnerships. Through these agreements, York Region provides base funding to help advance negotiations with land owners on protection of individual properties, with a focus on conservation easements, bequests and donations. Fee simple purchases are the last option to be considered.

Since adoption of the Regional Greening Strategy in 2001, properties totaling 1,105 hectares have been protected. Included in this total are 318 hectares, which are now part of the York Regional Forest. The team feels that a long term strategic partnership clearly has greater value to the Land Trust Partners and to the ecosystem then a one-off transactional land purchase.


This facility functions as a trailhead for the Hollidge Tract. There is a moderate amount of parking provided for public use. The number of parking spaces was examined carefully considering the surrounding area development is rural, and largely occupied by forests, farms, homes, and small business.  As much as possible, York Region encourages transit to the site by bus, carpool, and bicycle in an effort to encourage healthy living and access to the site for a diverse range of uses.

York Region has developed a transportation demand management plan to reduce single occupancy vehicles to the Centre.  The main implemented measures of the plan are carpooling and the use of chartered buses.  Information regarding the Smart Commute online carpooling tool and booking York Regional transit chartered buses are available at the time of booking the Centre’s space.  Using these strategies, the Region has determined that the target for reducing the amount of single vehicle occupancy is approximately 33%.



BFFSEC is located on a site that is abundant with local resources including water. The natural aquifers on the project site are capable of providing ample supply water to be used within the facility. The building is connected to two wells, one existing and one new, to meet the demand for potable water in the building. The building’s non-potable water is provided from on-site groundwater and rainwater collected on the roof of the building and drained into an underground cistern. The water is used for plumbing inside the building to flush toilets and urinals. Water systems and components include a well water supply system with non-chemical treatment, rainwater harvesting system including cistern, pumping and treatment devices, low-flow plumbing fixtures: toilets, urinals, lavatories, sinks and showers, Waterloo biofilter wastewater treatment device, SWM infrastructure including pervious gravel and bioswales.

The project is accurately described as ‘net-positive water’: all water used in the building is returned to nature, as clean, or cleaner than it was before.


Rainwater, greywater, and blackwater from plumbing is sent to a biofiltration device and eventually infiltrated back into soils on site. The module is mainly comprised of a pressure tank, strainer, 5-micron filter and UV filter to trap particulates and eliminate micro-organisms without chemical treatment.

Groundwater is pumped from an underground well and is transported to an anti-scalant filter and UV filter in the mechanical room before serving lavatories, sinks, and showers in the kitchenette and washrooms/shower. The anti-scalant and ultraviolet filter is responsible for removing sediments and micro-organisms in the groundwater. Storm water is 100% infiltrated or transpired on or off site.



The Bill Fisch Forest Stewardship and Education Building is designed to operate as a Net Positive Energy building – generating more clean energy on the project site than is used over the course of a year at design conditions. Achieving Net Positive requires ultra-high levels of energy efficiency inside the building, and renewable energy systems that are effectively sized, designed, and commissioned on the project site.

Heating is supplied to the majority of building spaces through radiant slab heating. The multi-purpose room is equipped with an air source heat pump to provide heating when the outdoor air temperature is above the unit’s minimum operating temperature; cooling to this room is also provided by the unit’s split system. No other cooling for the building exists, and relies on strategically placed operable windows to maintain occupant comfort. Operable windows are controlled by the building automation system to open when outdoor air temperature exceeds 10°C (this operation is disabled in the multi-purpose room when mechanical cooling is active). A heat recovery unit treats all incoming ventilation air to the building, with the exception of the multi-purpose room which is served by an energy recovery ventilator. Both units are capable of modulating outdoor air rates depending on occupancy.

Several tankless domestic hot water heaters serve the washrooms, kitchenette and mechanical room. Lighting is LED throughout, coupled with occupancy sensors and automatic daylight controls. Exterior lighting operates on a dawn-to-dusk photosensor, with full shut down occurring overnight. Plug loads are based on a typical occupancy schedule to match the daily and seasonal operations of each space in the building.

The active and passive energy uses in the building are complemented by a high-performance building envelope. Roofs, walls and slab are insulated to RSI-values of 12.3, 7.4 and 1.8 m²K/W respectively. Glazing units are triple-pane, argon filled units with fixed and operable U-values of 0.91 and 1.2 W/m²K respectively. Connections and openings were carefully detailed and reviewed by a building scientist to maximize air/vapour barrier continuity, insulation continuity and proper seals around openings.

Several renewable energy technologies were reviewed for the site including wind turbines, roof-mounted PV panels, ground-mounted or tracking PV panels, solar heat collectors and geothermal connection. Preliminary feasibility was evaluated for each and the site was deemed not suitable for wind or geothermal uses. PV panels were reviewed for several locations on- and off- the LEED & Living Building Challenge project site. It was determined that the following goals were desired:

  • Sufficient capacity to meet the building energy use target (Net Positive)
  • Minimize environmental disruption
  • Optimize system output and minimize impacts from local effects (e.g. PV panel shading)
  • Provide visibility, accessibility, and ‘teaching moment’ for visitors to the site

Based on the above it was chosen that a roof-mounted PV array would provide the needed capacity and facilitate the best overall design for the site. The building was located at the North end of the site, with parking area to the South, to allow for the greatest access to solar radiation. 3D modeling (with REVIT and with PVSYST) was conducted to ensure that shading was minimized. The PV system is comprised of 158 high output mono solar panels, ‘Sunmodule Plus SW 280 Mono’. Each panel has 60 solar cells enclosed in an aluminum frame with tempered glass front. The solar panels are installed in rows of 15 to 33 units on the roof of the Forestry building, facing South – Southeast (approx. 14 degrees) and arranged to avoid roof penetrations and shading from stacks, chimneys, etc.

The panels are fixed on place on aluminum racking and ballast trays are used to hold the PV array in place and resist wind loads. Panels are tilted at 5° from the horizontal.

Each panel has a 250W Enphase M250 Microinverter converting DC-AC to provide greater efficiency for the system and minimize the impact of shading, dust, and debris. The PV-to-inverter sizing ratio (1.12) was chosen to optimize the annual kWh output of the system with respect to embodied materials and initial capital cost.

Each string of panels is connected via AC wiring and a junction box to a dedicated panel for the PV circuit which is located in the electrical room. A revenue grade meter is used to monitor PV system output. The renewable energy system is grid-tied, sending excess energy to the central electric grid when there is excess generation (summer peak or periods of low occupancy) and drawing energy from the grid to handle peak demands. The annual on-site renewable energy exported by the system is approximately 44 MWh per year.


The building is intended to be a living demonstration that a highly green and energy efficient structure can also be nurturing, comfortable, and healthy, without compromising on aesthetics and the quality of the indoor environment. The building was designed, from the very first moments, to be completely integrated with the surrounding eco-system. This, along with the extensive use of wood, creates a sensation of biophilia that goes well beyond interior patterns and finishes. Combined with operable windows, the result is a feeling of being submerged in nature, throughout all four seasons.


Every occupiable interior space of the project has access to operable windows that provide access to fresh air at the breathing zone. Operable windows at the clerestory also permit occupants to take advantage of natural ventilation with the circulation of air between the upper and lower windows.

Vision Glazing, clerestory and floor-to-ceiling vertical panels of glass permits light to stream into the building, offering a view of the site: a surrounding forest, in every occupied space.


All ventilation equipment is sized to meet the minimum requirements of ASHRAE All ventilation equipment is sized to meet the minimum requirements of ASHRAE 62.1-2010. Exhaust air from the washrooms and the shower room are exhausted by HRV-1.  The unit is equipped with a plate-and-frame heat exchanger ensuring that there is no cross-contamination with other spaces.  Exhaust air from the mechanical room/janitor’s room is separately exhausted via dedicated exhaust fans.  Kitchens, copy rooms, and chemical storage are not found in the building.

Pre-occupancy Indoor Air Quality testing was conducted during May 2015.  The test results indicated that the levels of TVOC and particulates exceed the recommended maximums from Living Building Challenge 2.1.  A ‘Plan for Corrective Action’ was created to ensure that IAQ would be at an acceptable level before occupancy.  The excess outdoor air was provided for a period of several months to ensure that pollutants were exhausted from the building before occupancy.  A final IAQ test was completed during the performance period of the building.

All regularly occupied zones are equipped with zone-mounted sensors for temperature, humidity, and CO2 to ensure monitoring of air quality and comfort conditions.

The main entrance to the building is equipped with a multi-stage system to remove dirt from the feet of those entering the building.  There is an exterior metal floor grille, and interior floor mat, and a dedicated entrance vestibule.  Other doors in the building are seasonal entrances; they are equipped with an interior floor mat to remove dirt if there is any.

Signage is posted throughout the project site to inform visitors that smoking is prohibited on the entire project site.


The site and the building’s exterior communicate that the forest does not end at the clearing, nor at the threshold of the building; rather, visitors are given the sensation that the forest is one with the building.  Trees and native plant species are interspaced throughout the landscape to link the building with its surroundings.

The primary cladding material for the building is reclaimed Douglas fir; just like the trees around it, the building is visibly an object of wood.  The grid arrangement of the wood panels recalls honeycombs or the natural cell structure of a leaf.  Other portions of the building are clad in Owen Sound limestone, giving the impression that it is part of the earth as well as part of the forest.

The form of the building mimics a tree, with the roof of the building emerging as a prominent canopy.  This prominent structure mimics an offering of shade and shelter to anyone who stands underneath. The shapes incorporated in the building envelope are meant to evoke the patterns of the forest immediately outside the building.  Glazing in the lobby and meeting rooms is provided in thin panels that traverse from floor to ceiling, interspersed with wood panels that do the same. The image that is evoked is just like the trunks of the trees outside; the vertical lines of the building parallel those of the forest.

The building is itself a symbol of how the built environment interacts with the natural environment, particularly in how wood can be harnessed as a renewable and sustainable building material.  Wood materials were used throughout the building as a finish and as a building material.  Inside the building, CLT wall panels, CLT roof decks, and Glulam columns are visible, serving as functional elements, as a demonstration of wood construction, and as a technique to create a warm, welcoming, and natural indoor environment.

On the interior, light streams into the building through clerestories in every occupied space, eliciting the feeling of sunbeams traveling through the forest canopy. The form of leaves from local trees is cast into the polished concrete gives the impression that the door has flown open and nature has blown in with the wind.  In addition, it was important that moments of natural heritage be incorporated.  This is demonstrated by the entrance desk, which is formed primarily of salvaged wood, from trees killed by the invasive Emerald Ash Borer.


Photo Courtesy of Tom Arban Photography Inc.

From the beginning of the project, the design team declared that this would be a highly demonstrative wood building.  The project site is a forest, certified to the standards of FSC.  In this circumstance, not only did the building need to be 100% FSC certified wood, but it was imperative that the building be an example of how innovative wood products can be used to create a green building.  The building is also designed to be highly adaptable, and will evolve over the course of its 90-year design lifetime to house different users and functions.


The project team faced multiple manufacturers who expressed their desire to maintain trade secrets or proprietary ingredients of products. This caused the project team to rely on the I11-E15 Proprietary Ingredients.  Materials such as paints, coatings, adhesives and sealants were particularly reliant on this Exception.

I11-E20 Small Electrical Components was also widely used with respect to building automation and control components, communications components and security equipment.  Of the dozens of components in these product categories, the majority were RoHS or EU Directive 2011/EU/65 compliant, or had a manufacturer-provided list of ingredients for products containing more than 10 components.

Finally, some components of the photovoltaic system, such as the solar relay and underground Teck cable, could not be sourced in the marketplace as compliant with RoHS or Red List requirements.  Every effort was made by the project team to find suitable alternatives; when none were found, the team performed due diligence and used I11-E1 General Red List.


The BFFSEC was conceived as a building that would emulate the surrounding forest, using wood as a building material to sequester carbon.  Glulam beams and cross-laminated timber are the main structural materials and interior finish for the project, providing low-carbon solutions while creating a natural and welcoming interior.  A shallow concrete foundation was chosen to minimize the carbon footprint of the structure.

PROJECT – Landfill Methane Capture; Renewable Energy
PROVIDER – TerraPass
WEBSITE – www.terrapass.com
CARBON CALCULATOR – Athena Impact Estimator Tool (v4.5)



Product TypeManufacturerManufacturer Location
Glulam (Nordic Lam)Nordic Engineered WoodMontreal, QC
Plywood (SierraPine Medite FR)Timber Products CompanyMedford, OR


ShelfLife (Dundas, ON) – Reclaimed Douglas Fir Siding


The vast majority of materials used on the project were readily available and manufactured and/or extracted within the maximum distance of their corresponding zone designations, thereby supporting the regional economy and reducing the associated energy impact of transporting materials over long distances.

The only challenge with sourcing regionally extracted products was with the availability of some FSC products.  In particular, FSC-certified plywood was not available within Zone Two (1,000 km range) at the time of the BFFSEC construction.  The team had to source plywood from the west coast (Oregon).


Plywood (SierraPine Medite FR) – Timber Products Company


The design of BFFSEC embodies a set of key principles to minimize the overall materials and environmental impact over time:

  • Minimize the environmental footprint of the building with a focus on embodied carbon
  • Use natural and indigenous materials that reflect the heritage of the site and Great Lakes Basin
  • Provide a durable, flexible and adaptable building that will last 90 years
  • Use materials and assemblies that can be deconstructed at the end of life
  • Create a high-performing envelope that is well-insulated and air tight
  • Transform the industry by requiring transparency and disclosure and excluding worst-in-class materials found on the ‘Red List’

Extensive research was done by the designers, spec writers and contractor to locate the most suitable products and materials based on these principles.

Space in the building is designed to serve multiple uses, removing the need for additional program area and associated materials.  The building mass and systems are capable of easy expansion when more space is needed.

Project decisions were made on a 90-year time frame to match York Region’s stewardship of the Hollidge Tract over the last 90 years and see the next cycle of forest regeneration.  Materials, systems and assemblies were selected for long service life as well as ease of replaceability: foundation, columns, beams and decks are robust, durable and expected to exceed the 90-year service life.  Components such as sealants and membranes that may break down sooner are located such that they can be easily replaced.

During the construction phase, the team worked to limit off-cuts and excess materials, use reusable blankets and strapping in place of cardboard and foam, and reuse excess materials (insulation) on other projects rather than sending elsewhere for reprocessing or recycling.

The Region is strongly committed to reducing waste during the operational phase of the building, including collection of organics and recycling within the building, and reduction of waste that is hauled to landfill as described in their Solid Waste Management Policy for Building Operations.  The policy is based on the principles of Source Reduction, Reuse, Recycling and Composting, and Hazardous Waste and Durable Goods.  Performance metrics and reporting are in place to ensure these goals are achieved.

Finally, the BFFSEC was conceived, designed and constructed to account for materials processing at the end of its useful life.  Where possible, materials are designed to be reused or recycled, with landfill of non-salvageable materials as a last resort.  The structure of the building (glulam columns and beams) are tied together with steel connectors and can be taken apart piece by piece.  The wood panel cladding is modular and reusable, milled in a regular configuration and installed individually for replacement or access to the wall assembly layers beneath.


Existing materials were surveyed to identify opportunities to further reduce the materials footprint. However, the team determined the education building outlived its useful service life and had concerns about the prevalence of hazardous materials.  Ultimately, the existing materials were deemed unsuitable for adaptive reuse due to concerns with hazardous materials, siting, size and remaining service life.  Ultimately, the Region chose to incorporate elements from other projects in the new facility, including salvaged beetle-kill wood as the main material in the front entrance.


Photo Courtesy of Evan Dion Photography Inc.


The BFFSEC is intended to encourage human gathering, to get people out of their cities and automobiles and to encourage them to experience nature first hand.  The site spaces are designed to support interaction, collaboration and learning in a natural outdoor setting.  An outdoor classroom space is located in the centre of the woodland garden, which has been planted with an entirely native palette of plant materials.  These species complement and enhance the surrounding mature forest landscape.  Grading and stormwater management promote natural infiltration and minimize erosion of soil, mimicking the natural site condition.

Because this facility functions as a trailhead for the Hollidge Tract, there is a moderate amount of parking provided.  The number of parking spaces was examined carefully and a balance was chosen between human scale and granting access to a remote resource. The quantity is above the amount prescribed for an L1 site. However, the parking is not intended to solely serve the building, but rather the 80 ha nature site on which it is situated.  Since the site is not regularly serviced by public transit, carpools are the main mode by which the site is accessed.

Parking areas are deliberately broken up using landscaped islands planted with native trees. This results in a more natural feeling for the site, without the traditional ‘sea of parking’ character.  Walking and activity is encouraged, and safety is enhanced, by having parking de-emphasized on the site.  The parking area has a permeable surface to promote natural infiltration of stormwater and reduce run-off.  Drive aisles are narrow, minimizing the area disturbed on site and encouraging slow vehicular speeds.  The permeable pathways are shared spaces, maintaining functional site circulation within the overall natural character of the site.

Signage on the site is limited to wayfinding, educational exhibits, and a minimal amount of functional signage for the fire reservoir and other equipment.


The BFFSEC was envisioned to operate just like the forest – its beauty and wonder accessible to all, regardless of gender, race, class or physical ability.  While this is not a public building, it will be made available to all members of the community throughout the year.  The Hollidge Tract is open to the public year-round and is free to access around the clock.  There is no fee for any person to visit the site and walk the network of trails.

York Region provides a program called ‘Nature’s Classroom’, a fun and informative outdoor education program held in the York Regional Forest.  Some of these programs will be paid classes that require registration while others will be open to the public and free-of-charge.  Participants in Nature’s Classroom will be welcomed into the building and learn information about the building, its inspiration and ecological features, and the Living Building Challenge program.  The program and the site itself are designed to attract a variety of groups including school groups, Scouts and Girl Guides, seniors, naturalists and persons with disabilities.

Several times a year, the site and the building will host ‘Forest Festivals’ to which all members of the community are invited, free of charge, to celebrate the forest.  The forest festivals include hikes, nature classes, meet-and-greets with forest animals, and tree-planting workshops.  Some sessions will explore the native cultures that inhabited these lands and their connection with the forest.

The building is designed to be accessible to people of all physical abilities. Dimensions of spaces and doors, easily operable components such as handles and switches and graphics and large text to distinguish signage are some of the intentional accommodation strategies employed throughout the building.  The building is designed to meet and exceed the standards of the Access for Ontarians with Disabilities Act (AODA).  Outside the building, the site is designed to the same standards, including wheelchair accessibility not only in the parking/classroom areas, but also along a special 1 km trail that is graded and cleared regularly.


Photo Courtesy of Cindy Blazevic


The approach to the design of the building was equally important as the siting and building placement.  The design process was not only rooted in the performative qualities of the building, but also in the expression of space that would blur the lines of interior and exterior space.  This theme is expressed in numerous ways through form, materials, light, views, circulation, and programed spaces. For the BFFSEC, the building was always conceived of being ‘of the forest’, and not ‘in the forest’.

On approach from the access road to the site, the building is expressed in a panorama of trees and naturalized planting.  The predominant building material of wood is dominant and deliberate, augmented by seemingly random vertical strip windows that are analogous to the adjacent tree trunks and reflective of the immediate environment.  The roof’s deep overhang ultimately provides solar shading and protection from the elements.  The soffits of the cantilevered roof are constructed of CLT that appear to seamlessly transition from interior spaces to the exterior. The exterior cladding is salvaged wood reprocessed by a local company specializing in salvaging construction materials from decommissioned buildings in Ontario.  The finished boards were maintained as a rough saw finish and left untreated to weather naturally in the forest environment.

Feature interior finishes include black spruce cross-laminated timber, maple veneer wall panels and reclaimed ash.  Ash across Ontario has been infected by the invasive Emerald Ash Borer and has caused widespread destruction.  Its presence in the building provides a didactic reminder of the vulnerability of our forest systems.

The trees enhance the interior environment as well – impressions of leaves in the concrete flooring are a visual clue that even inside the building, occupants are walking the forest floor.


The very purpose of this building is to house forest stewardship and education initiatives and create a community for learning. The centre and its surrounding landscape, including the Hollidge Tract, are open to all walks of life to learn about and appreciate environmental conservation.  To spur further interest and engagement, several initiatives have been implemented by York Region.

York Region hosts ‘Forest Festival’ events at the Hollidge Tract at least twice yearly.  These events are celebrations of the forest, during which the entire community is invited to the site to learn about the history and ecology of the forest.  The building is open for tours during these events.

Two web sites are publicly available and give information about the building:

Two brochures are available at the building; one is produced by DIALOG and the other is produced by the CWC.  A digital copy of each brochure is included in this application.  Additionally, user instructions are relayed to visitors and users of the facility in the brochure.

Signage is located outside and throughout the building to guide visitors through their learning journey.

A learning video was produced, and can be viewed here:  https://vimeo.com/141227639

Evoke DIALOG – Bill Fisch Forest Stewardship and Education