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Function meets form in the Delta House, which incorporates innovative building solutions for our challenging rural Canadian climate. Perhaps more akin to aeronautics than architecture, biomimetic processes drove the problem-solving approach while seeking multiple functions for each component. A typical Canadian home grows up and out of the site, exposing more of the facade to the elements. Instead of building up, the focus here was to make better use of the lower level. A section of the house was dug out on the south side, making room for three main glazed boxes. The spaces and bedrooms of a typical second floor were transferred to the more protected basement, thus lowering the volume of conditioned air within the dwelling.
To minimize energy losses through the glazing, ATA centralized the windows on the south side of the building, while minimizing the glazing on other facades. The centralized windows became the “three sisters” allowing the winter sun into the main floor and lower level of the house. The aerodynamic delta shape of the building was tested in a wind tunnel and was designed to minimize energy loss due to contact with the turbulent winter wind. The sisters are tilted 10 degrees towards the sun, leveraging the properties of glass as a reflector, when the sun is at a high angle of incidence in the summer.
The house also contains an innovative thermal mass battery in the basement slab and a connected radiative masonry fireplace. Excess heat, gathered at the top of the tent-like roof is directed down and reheated through the chimney before being drawn into the basement slab for storage. Openings in the floor areas ensure the energy is equally distributed throughout the dwelling.
Read an article in the Globe and Mail about ATA’s Delta project here.

Function meets form in the Delta House, which incorporates innovative building solutions for our challenging rural Canadian climate. Perhaps more akin to aeronautics than architecture, biomimetic processes drove the problem-solving approach while seeking multiple functions for each component. A typical Canadian home grows up and out of the site, exposing more of the facade to the elements. Instead of building up, the focus here was to make better use of the lower level. A section of the house was dug out on the south side, making room for three main glazed boxes. The spaces and bedrooms of a typical second floor were transferred to the more protected basement, thus lowering the volume of conditioned air within the dwelling.
To minimize energy losses through the glazing, ATA centralized the windows on the south side of the building, while minimizing the glazing on other facades. The centralized windows became the “three sisters” allowing the winter sun into the main floor and lower level of the house. The aerodynamic delta shape of the building was tested in a wind tunnel and was designed to minimize energy loss due to contact with the turbulent winter wind. The sisters are tilted 10 degrees towards the sun, leveraging the properties of glass as a reflector, when the sun is at a high angle of incidence in the summer.
The house also contains an innovative thermal mass battery in the basement slab and a connected radiative masonry fireplace. Excess heat, gathered at the top of the tent-like roof is directed down and reheated through the chimney before being drawn into the basement slab for storage. Openings in the floor areas ensure the energy is equally distributed throughout the dwelling.
Read an article in the Globe and Mail about ATA’s Delta project here.

Energy Efficiency:
Every effort has been utilized to reduce and minimize energy use through an effective strategy of both passive heating and cooling, as well as state-of-the-art active solar thermal and photovoltaic on site off-grid energy production. Optimal solar orientation with an attached thermal mass food production greenhouse on the Lower Floor enables hot air to be introduced into the house during the winter, and rise via. a thermal chimney “stack effect” and distributed throughout the house. In the summer the same thermal chimney is used to channel hot air to rise up to the Upper Loft vegetated Roof Terrace, where it is exhausted. This condition provides a positive air pressure in the Winter, and a negative pressure in the summer, drawing in cooler outside air from every open window. In addition carefully proportioned roof eave overhangs provide deep passive solar gain and additional day lighting in the winter, and cooling shade in the summer.
Active mechanical systems include solar thermal which produces domestic hot water and is integrated into hydronic radiant heated floors. This is supplemented with a multi-split heatpump, on demand backup hot water, and an ERV, which collectively provide active heating, cooling, dehumidification, and healthful indoor air quality. The entire house and detached Barn are off-grid with a 14.4 kW solar array, whole-house batteries, and backup generator. Further, the home is super insulated and extremely tight with high energy performing windows and doors and LED lighting throughout, and even a high efficiency woodstove.
Integrated Design:
From the beginning and throughout construction, this home demonstrates a close collaboration between the Architect, Contractor, and Owners. Healthful materials and finishes standards, autonomy and energy efficiency, and environmental impact and sustainability were primary goals and stressed throughout. Careful attention was paid to finishes which will require minimal long term maintenance such as the galvalume metal roof (which also provides for rainwater harvesting) and fiber cement siding for longevity.
Resource Efficiency / Conservation:
Resource conservation began with Schematic Design which utilizes a 2 ft. grid of modular components, thereby optimizing construction efficiency and minimizing on site waste. The site was cleared with the trees stockpiled for future lumber harvesting and firewood. The foundation walls are “Ideal Walls” which use less than half the concrete of a conventional poured wall or block, and do not require extensive concrete footings, exterior insulation, or waterproofing. These panels are prefabricated off site and set in only a few days, which further reduces on site impact and construction lead time.
Resiliency:
Respect for climate change and mitigating its impact were primary considerations in the design and selection of materials and systems. The home is sited high on a south facing slope as protection from high water or flood and to optimize both passive and active solar opportunity. With remarkably tight construction and super insulation the interior is buffered from both outdoor heat and cold extremes. The metal roof and fiber cement siding are fireproof and resistant to the impact of high winds. And these materials are specified for minimal maintenance and longevity. Further, the attached Greenhouse and Upper Roof Terrace is landscaped and suitable for a vegetable garden with abundant sunshine, easy to water, and with no need for fencing to keep deer at bay. All this being a notable case study for Regenerative Design.
Innovation:
This home exemplifies Biophilic Design principles to facilitate symbiotic living in harmony with Nature. This incorporates careful attention to natural day lighting, indoor air quality, rainwater catchment and wastewater reclamation, garden food production with vegetated roofs, the home hearth and fire, and connected interaction with the weather and the surrounding natural ecosystems.
Community Impact:
This EcoHome project has already been presented at several Sustainable Building lectures as a model case study for “Green Building”, including USGBC at Brock Environmental Center in Virginia Beach, VA. Plans are underway for an Open House tour for area Architects and students.

Function meets form in the Delta House, which incorporates innovative building solutions for our challenging rural Canadian climate. Perhaps more akin to aeronautics than architecture, biomimetic processes drove the problem-solving approach while seeking multiple functions for each component. A typical Canadian home grows up and out of the site, exposing more of the facade to the elements. Instead of building up, the focus here was to make better use of the lower level. A section of the house was dug out on the south side, making room for three main glazed boxes. The spaces and bedrooms of a typical second floor were transferred to the more protected basement, thus lowering the volume of conditioned air within the dwelling.
To minimize energy losses through the glazing, ATA centralized the windows on the south side of the building, while minimizing the glazing on other facades. The centralized windows became the “three sisters” allowing the winter sun into the main floor and lower level of the house. The aerodynamic delta shape of the building was tested in a wind tunnel and was designed to minimize energy loss due to contact with the turbulent winter wind. The sisters are tilted 10 degrees towards the sun, leveraging the properties of glass as a reflector, when the sun is at a high angle of incidence in the summer.
The house also contains an innovative thermal mass battery in the basement slab and a connected radiative masonry fireplace. Excess heat, gathered at the top of the tent-like roof is directed down and reheated through the chimney before being drawn into the basement slab for storage. Openings in the floor areas ensure the energy is equally distributed throughout the dwelling.
Read an article in the Globe and Mail about ATA’s Delta project here.

Project by Studio H:T. Principal Brad Tomecek now with Tomecek Studio Architecture. Constructed using a sophisticated German prefabrication system, this unique 40 feet wide property boasts expansive front range views. The humble transparent entry elevation is based on a series of north-south solid walls that are connected with storefront glass. This experience unfolds moving through the residence until the occupant is hovering on a deck three stories above the rear yard – ‘floating’ in the trees. Alpine residence blurs the distinction between interior and exterior space while focusing a significant amount of attention to the Flatirons. (Photos by Wilson Kauanui)

Energy Efficiency:
Every effort has been utilized to reduce and minimize energy use through an effective strategy of both passive heating and cooling, as well as state-of-the-art active solar thermal and photovoltaic on site off-grid energy production. Optimal solar orientation with an attached thermal mass food production greenhouse on the Lower Floor enables hot air to be introduced into the house during the winter, and rise via. a thermal chimney “stack effect” and distributed throughout the house. In the summer the same thermal chimney is used to channel hot air to rise up to the Upper Loft vegetated Roof Terrace, where it is exhausted. This condition provides a positive air pressure in the Winter, and a negative pressure in the summer, drawing in cooler outside air from every open window. In addition carefully proportioned roof eave overhangs provide deep passive solar gain and additional day lighting in the winter, and cooling shade in the summer.
Active mechanical systems include solar thermal which produces domestic hot water and is integrated into hydronic radiant heated floors. This is supplemented with a multi-split heatpump, on demand backup hot water, and an ERV, which collectively provide active heating, cooling, dehumidification, and healthful indoor air quality. The entire house and detached Barn are off-grid with a 14.4 kW solar array, whole-house batteries, and backup generator. Further, the home is super insulated and extremely tight with high energy performing windows and doors and LED lighting throughout, and even a high efficiency woodstove.
Integrated Design:
From the beginning and throughout construction, this home demonstrates a close collaboration between the Architect, Contractor, and Owners. Healthful materials and finishes standards, autonomy and energy efficiency, and environmental impact and sustainability were primary goals and stressed throughout. Careful attention was paid to finishes which will require minimal long term maintenance such as the galvalume metal roof (which also provides for rainwater harvesting) and fiber cement siding for longevity.
Resource Efficiency / Conservation:
Resource conservation began with Schematic Design which utilizes a 2 ft. grid of modular components, thereby optimizing construction efficiency and minimizing on site waste. The site was cleared with the trees stockpiled for future lumber harvesting and firewood. The foundation walls are “Ideal Walls” which use less than half the concrete of a conventional poured wall or block, and do not require extensive concrete footings, exterior insulation, or waterproofing. These panels are prefabricated off site and set in only a few days, which further reduces on site impact and construction lead time.
Resiliency:
Respect for climate change and mitigating its impact were primary considerations in the design and selection of materials and systems. The home is sited high on a south facing slope as protection from high water or flood and to optimize both passive and active solar opportunity. With remarkably tight construction and super insulation the interior is buffered from both outdoor heat and cold extremes. The metal roof and fiber cement siding are fireproof and resistant to the impact of high winds. And these materials are specified for minimal maintenance and longevity. Further, the attached Greenhouse and Upper Roof Terrace is landscaped and suitable for a vegetable garden with abundant sunshine, easy to water, and with no need for fencing to keep deer at bay. All this being a notable case study for Regenerative Design.
Innovation:
This home exemplifies Biophilic Design principles to facilitate symbiotic living in harmony with Nature. This incorporates careful attention to natural day lighting, indoor air quality, rainwater catchment and wastewater reclamation, garden food production with vegetated roofs, the home hearth and fire, and connected interaction with the weather and the surrounding natural ecosystems.
Community Impact:
This EcoHome project has already been presented at several Sustainable Building lectures as a model case study for “Green Building”, including USGBC at Brock Environmental Center in Virginia Beach, VA. Plans are underway for an Open House tour for area Architects and students.

Long Island, would you like to replace your windows this winter? Concerned about your home being opened up to the cold during the installation process? If you’re getting Royal Windows, you don’t need to be worried. Our special winter window installation process minimizes the heat loss in your home during the installation of your new windows. Whether you are getting one window replaced or an entire houseful, the experts installing your Royal Windows have your comfort in mind every step of the way.
Our expert window installation teams start by closing off each room receiving new windows from the rest of the house to minimize your exposure to the cold and snow.
We install one window at a time to minimize the cold air entering your home. Typically, each window is only out for approximately 5 minutes or less. Complete opening alterations will take a bit longer, but our experts work quickly, keeping the amount of time without a window in place to a bare minimum. All trim work on the interior and/or exterior of your windows only happens when the new window is properly in place.
We also utilize a two crew installation team! One installer remains on the inside of the home and one installer remains outside during the entire process Our installation process keeps your home in tip-top shape by eliminating mud, snow and debris from being tracked in.
Want to learn more a bout winter window replacement Long island? Contact us today for more information about Royal Windows and Doors, our options and our installation process. We would be happy to personally review the process with you and provide you with a custom quote. Schedule your free in-home estimate today.
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