Anchored by the homeowner’s 42-foot-long painting, the interiors of this Palm Springs residence were designed to showcase the owner’s art collection, and create functional spaces for daily living that can be easily adapted for large social gatherings. Referencing the environment and architecture in both form and material, the finishes and custom furnishings bring the interior to life. Alluding to the roofs that suspend over the building, the sofas seem to hover above the carpets while the knife-edge table top appears to float above a metal base. Bleached and cerused wood mimic the “desert effect” that would naturally occur in this environment, while the textiles on the sofa are the same shade as the rocks of the landscape. Monolithic concrete floors connect all of the spaces while concealing mechanical systems, and stone thresholds signal vertical level changes and exterior transitions. Large wall masses provide the optimal backdrop for the homeowner’s oversized art. The wall structures ground the interior, while the opposing expanses of glass frame the desert views. The location and use of operable doors and windows allows the house to naturally ventilate, reducing cooling loads. The furnishings create spaces in an architectural fashion. Designed and fabricated for flexibility, the pieces easily accommodate the owners’ large social gatherings. The dining table can be split into two and the sofas can be pushed out along the walls, opening the center of the space to entertain. The design of the interior spaces and furnishings seamlessly integrates the setting, architecture, artwork and spaces into a cohesive whole.

This doorway was widened and the pass through added, in lieu of removing the (load bearing) wall. The perpendicular wall to the left contains the HVAC supply to the second floor. The decision to leave the load bearing wall and HVAC ducting (and walls) in place reduces the budget by roughly half. The appliance relocation and pass through allow for better traffic flow, more counter work space and more natural light in both spaces.

Anchored by the homeowner’s 42-foot-long painting, the interiors of this Palm Springs residence were designed to showcase the owner’s art collection, and create functional spaces for daily living that can be easily adapted for large social gatherings. Referencing the environment and architecture in both form and material, the finishes and custom furnishings bring the interior to life. Alluding to the roofs that suspend over the building, the sofas seem to hover above the carpets while the knife-edge table top appears to float above a metal base. Bleached and cerused wood mimic the “desert effect” that would naturally occur in this environment, while the textiles on the sofa are the same shade as the rocks of the landscape. Monolithic concrete floors connect all of the spaces while concealing mechanical systems, and stone thresholds signal vertical level changes and exterior transitions. Large wall masses provide the optimal backdrop for the homeowner’s oversized art. The wall structures ground the interior, while the opposing expanses of glass frame the desert views. The location and use of operable doors and windows allows the house to naturally ventilate, reducing cooling loads. The furnishings create spaces in an architectural fashion. Designed and fabricated for flexibility, the pieces easily accommodate the owners’ large social gatherings. The dining table can be split into two and the sofas can be pushed out along the walls, opening the center of the space to entertain. The design of the interior spaces and furnishings seamlessly integrates the setting, architecture, artwork and spaces into a cohesive whole.

Laundry closet in bathroom vanity vestibule. Separate private tub/water closet beyond. Penny round custom pattern tile. by FitzHarris Designs

This 3,300 square foot, LEED Platinum, Zero Energy Home sits on a hill with a beautiful view of rural Frederick County. The walls are Aerated Autoclaved Concrete (AAC). Deep overhangs and careful siting maximize passive solar heating and natural cooling; all south facing glazing has a very low U value and high solar heat gain coefficient to maximize solar heat in the winter. The East, North and West windows also have a very low U values and low solar heat gain coefficient to reduce cooling load. Systems include 4.3 kW solar, 1.8 kW wind turbine, batteries for backup power, geothermal heating and cooling, Energy recovery ventilation and 3000 gallons of rainwater collection.

Anchored by the homeowner’s 42-foot-long painting, the interiors of this Palm Springs residence were designed to showcase the owner’s art collection, and create functional spaces for daily living that can be easily adapted for large social gatherings. Referencing the environment and architecture in both form and material, the finishes and custom furnishings bring the interior to life. Alluding to the roofs that suspend over the building, the sofas seem to hover above the carpets while the knife-edge table top appears to float above a metal base. Bleached and cerused wood mimic the “desert effect” that would naturally occur in this environment, while the textiles on the sofa are the same shade as the rocks of the landscape. Monolithic concrete floors connect all of the spaces while concealing mechanical systems, and stone thresholds signal vertical level changes and exterior transitions. Large wall masses provide the optimal backdrop for the homeowner’s oversized art. The wall structures ground the interior, while the opposing expanses of glass frame the desert views. The location and use of operable doors and windows allows the house to naturally ventilate, reducing cooling loads. The furnishings create spaces in an architectural fashion. Designed and fabricated for flexibility, the pieces easily accommodate the owners’ large social gatherings. The dining table can be split into two and the sofas can be pushed out along the walls, opening the center of the space to entertain. The design of the interior spaces and furnishings seamlessly integrates the setting, architecture, artwork and spaces into a cohesive whole.

This 3,300 square foot, LEED Platinum, Zero Energy Home sits on a hill with a beautiful view of rural Frederick County. The walls are Aerated Autoclaved Concrete (AAC). Deep overhangs and careful siting maximize passive solar heating and natural cooling; all south facing glazing has a very low U value and high solar heat gain coefficient to maximize solar heat in the winter. The East, North and West windows also have a very low U values and low solar heat gain coefficient to reduce cooling load. Systems include 4.3 kW solar, 1.8 kW wind turbine, batteries for backup power, geothermal heating and cooling, Energy recovery ventilation and 3000 gallons of rainwater collection.

This 3,300 square foot, LEED Platinum, Zero Energy Home sits on a hill with a beautiful view of rural Frederick County. The walls are Aerated Autoclaved Concrete (AAC). Deep overhangs and careful siting maximize passive solar heating and natural cooling; all south facing glazing has a very low U value and high solar heat gain coefficient to maximize solar heat in the winter. The East, North and West windows also have a very low U values and low solar heat gain coefficient to reduce cooling load. Systems include 4.3 kW solar, 1.8 kW wind turbine, batteries for backup power, geothermal heating and cooling, Energy recovery ventilation and 3000 gallons of rainwater collection.

Chesapeake Energy’s 74,000 sqft. Green Roof a Natural Turf Rooftop Sports Field Chesapeake Energy is the second-largest producer of natural gas in North America, a Top 15 producer of oil and natural gas liquids and the most active driller of new wells in the country. Headquartered in Oklahoma City, the company’s operations are focused on discovering and developing unconventional natural gas and onshore oil fields in the U.S. Chesapeake is in the midst of creating a central hub, “Chesapeake Campus” as CEO Aubrey McCLendon refers to it, on the NW corner of Oklahoma City. Centered in the middle of Chesapeake Campus is a 75,000 square foot natural grass rooftop athletic field built on top of Chesapeake’s new 3 level parking garage. Sporting events, social gatherings, concerts and much more is what this new wonder of Oklahoma City offers. Chesapeake’s rooftop athletic field, designed by Elliott + Associates Architects, constructed by Smith & Pickel, and installed by Total Environment, not only brings aesthetic appeal to the streets of Oklahoma City, green roofing is a fantastic way to reduce the heat island effect of urban areas and capture storm water while creating enjoyable space for residents and employees. The environmental impact of a green roof is undeniable, adding significantly to the LEED Point system designed by the USGBC in all five major areas: sustainable site development, water savings, energy efficiency, materials selection, and indoor environmental quality. Green roofing replaces the green space displaced by a building, prevents excess storm water drainage, reduces the temperature of a building and the urban heat island effect, protects and extends the useful life of a roof, and reduces energy demands. Utilizing the AirField System as the drainage layer in a green roof design allows a complete inch of water storage space beneath the entire surface plus it is incredibly strong and light weight. The AirField AirDrain geocell is also easy to work with, install and fashion in unique layouts. What’s more, a green roof incorporating AirDrain means your design includes renewable, recycled, and locally obtained materials. We know you have a choice in designing a green roof, and we hope you consider the many benefits of AirDrain. Build a better green roof with AirField. Some Benefits of AirField in a green roofing system include: 100% vertical drainage under entire surface, 100% post manufactured recycled material, rapid water movement, minimal site disturbance, fast installation, light weight, incredible load bearing strength test at an empty 233 PSI/ 33,552 PSF. The list of major sustainable projects for AirField Systems of Oklahoma keeps growing and includes Chesapeake’s Central Park, Chesapeake’s Building # 14 rooftop, Whittier Middle School’s natural grass fire lane and Oklahoma State Cowboys T. Boone Picken’s Stadium’s game field along with hundreds of sustainable projects nationally. Total Environment Inc. is a Design-Build-Maintain company specializing in comprehensive landscape services for discriminating clients in the residential and commercial arena. The all-inclusive array of services and products that Total Environment provides is unequaled in the industry, in addition they also provide the ultimate in customer service. Highly skilled Account Managers from Universities in Oklahoma and across the country, oversee the properties daily, insuring impeccable success rates for installations and maintenance that is second to none. Projects span a broad range – from the installation of state of the art athletic fields to period landscapes, Total Environment is on top of the industry game. Seasonal displays of color, professionally designed and installed, enhance their properties and are always the ‘talk of the town’ every spring, summer, fall and winter. Christmas season, thanks to Total Environment ace lighting crews and its very generous clients, create a Winter Wonderland … always an incredible gift to Oklahoma City and the surrounding communities at large. Ty T. Hartwig, President of Total Environment, shares a favorite motto with his beloved Oklahoma City, “Labor omnia vincit” – which translates to “Labor Conquers All Things!” – a personal philosophy that molded the company into what it is today. Call today to find out how the AirField Systems can save you time, money and energy on your next green roof, sports field or porous paving project, 405-359-3775. http://www.airfieldsystems.com/chesapeake-energy-green-roof-natural-turf-rooftop-sports-field/

This 3,300 square foot, LEED Platinum, Zero Energy Home sits on a hill with a beautiful view of rural Frederick County. The walls are Aerated Autoclaved Concrete (AAC). Deep overhangs and careful siting maximize passive solar heating and natural cooling; all south facing glazing has a very low U value and high solar heat gain coefficient to maximize solar heat in the winter. The East, North and West windows also have a very low U values and low solar heat gain coefficient to reduce cooling load. Systems include 4.3 kW solar, 1.8 kW wind turbine, batteries for backup power, geothermal heating and cooling, Energy recovery ventilation and 3000 gallons of rainwater collection.

The goal set by the owners, a couple with farm family backgrounds, for a vacation and ultimately retirement home on 30 acres in the Mount Washington Valley was a high performance, low maintenance, Greek Revival inspired farmstead. The program included an open plan living/dining/kitchen area, first floor master suite, open and screen porches, mudroom, second floor guest bedrooms, and a barn to house farm equipment, recreational vehicles and a bocce court. The building envelope includes continuously insulated R-32 walls, R-60 roof, R-18 foundation walls, and R-20 under the basement slab. Dense packed cellulose in wall and roof assemblies minimized the use of spray foam. A blower door test of 0.76 ACH50 confirmed a tightly constructed envelope. Traditional details, using non-traditional synthetic and composite products, were developed to clad the exterior and a 23 kW PV array was added to the south facing barn roof. Energy efficient heating and cooling systems, along with balanced ventilation using an energy recovery ventilator (ERV), were integrated with the interiors. The second floor hallway is partitioned off from the stair to reduce heating and cooling loads when the guest rooms aren’t occupied. All LED lighting, including a cove light tucked into custom ceiling moldings, and Energy Star appliances reduced the electrical load. Two 30-yard containers of wood, plastic and cardboard were recycled during construction. The home achieved a HERS (Home Energy Rating System) rating of -30 (negative 30!), an order of magnitude below the 52 HERS average for New Hampshire and climate zone 6A in 2020. The electric meter has been running backward since the project was completed. The result is a home that is healthy, comfortable, durable, and efficient, with electricity produced on site that more than offsets its use of fossil fuels.

This 3,300 square foot, LEED Platinum, Zero Energy Home sits on a hill with a beautiful view of rural Frederick County. The walls are Aerated Autoclaved Concrete (AAC). Deep overhangs and careful siting maximize passive solar heating and natural cooling; all south facing glazing has a very low U value and high solar heat gain coefficient to maximize solar heat in the winter. The East, North and West windows also have a very low U values and low solar heat gain coefficient to reduce cooling load. Systems include 4.3 kW solar, 1.8 kW wind turbine, batteries for backup power, geothermal heating and cooling, Energy recovery ventilation and 3000 gallons of rainwater collection.

This 3,300 square foot, LEED Platinum, Zero Energy Home sits on a hill with a beautiful view of rural Frederick County. The walls are Aerated Autoclaved Concrete (AAC). Deep overhangs and careful siting maximize passive solar heating and natural cooling; all south facing glazing has a very low U value and high solar heat gain coefficient to maximize solar heat in the winter. The East, North and West windows also have a very low U values and low solar heat gain coefficient to reduce cooling load. Systems include 4.3 kW solar, 1.8 kW wind turbine, batteries for backup power, geothermal heating and cooling, Energy recovery ventilation and 3000 gallons of rainwater collection.

Love open spaces and enjoy ample sunlight? -- -- -- EWG high performance floor to ceiling windows provide an abundance of natural light while low-e glass helps to reduce cooling load as well as enhances energy and light transmission performance.

AC
Home design - contemporary home design idea in Bengaluru

I think that many carpenters today consider nails and screws to be what holds a structure together. As a result, I think that many structures today are held together by little more than nails and screws. I often see knee braces bolted to the side of a post for a pergola when they should be positioned between the post and beam to take the load directly. Fasteners should not be load-bearing! They should be used to pin a piece of lumber into a position that allows it to shoulder the load directly. Nails and screws are fast. When used appropriately, they can keep costs down by reducing the time it takes to build something. But they are not the answer to everything. Joist hangars do little to stop a deck from pulling away from a house, just as nailing from the side is not a replacement for putting a post directly under a beam. On more than one occasion I've solved a challenging framing problem by employing lap-joints. I've used lap-jointed framing to build curves without having to bend wood, and in the example shown I've used them simply to avoid having to look at an unsightly beam underneath a raised section of deck. I cut notches half way through my beam where the joists will go, then I cut a corresponding notch into each joist that allows it to fit into the notch in the beam. This allows the joists to cantilever 'through' the beam, which gives me a number of advantages. Using this technique, I can build deck frames tight to the ground without having to rim the structure with joist-hangared beams. I can also use the cantilever to sculpt the edge of the deck into nearly any shape. As the lumber is locked in from every direction, it is also a far stronger joint than a joist-hangared butt-end, as it resists pulling away, and it is stronger than joist-on-beam because it does not allow for any twisting or 'flopping' of the joists. The beam and joist are locked together, and they each replace the missing pieces of one another, so there is no strength lost in either member. -Tyler Collins, Operations Manager

I think that many carpenters today consider nails and screws to be what holds a structure together. As a result, I think that many structures today are held together by little more than nails and screws. I often see knee braces bolted to the side of a post for a pergola when they should be positioned between the post and beam to take the load directly. Fasteners should not be load-bearing! They should be used to pin a piece of lumber into a position that allows it to shoulder the load directly. Nails and screws are fast. When used appropriately, they can keep costs down by reducing the time it takes to build something. But they are not the answer to everything. Joist hangars do little to stop a deck from pulling away from a house, just as nailing from the side is not a replacement for putting a post directly under a beam. On more than one occasion I've solved a challenging framing problem by employing lap-joints. I've used lap-jointed framing to build curves without having to bend wood, and in the example shown I've used them simply to avoid having to look at an unsightly beam underneath a raised section of deck. I cut notches half way through my beam where the joists will go, then I cut a corresponding notch into each joist that allows it to fit into the notch in the beam. This allows the joists to cantilever 'through' the beam, which gives me a number of advantages. Using this technique, I can build deck frames tight to the ground without having to rim the structure with joist-hangared beams. I can also use the cantilever to sculpt the edge of the deck into nearly any shape. As the lumber is locked in from every direction, it is also a far stronger joint than a joist-hangared butt-end, as it resists pulling away, and it is stronger than joist-on-beam because it does not allow for any twisting or 'flopping' of the joists. The beam and joist are locked together, and they each replace the missing pieces of one another, so there is no strength lost in either member. -Tyler Collins, Operations Manager

I think that many carpenters today consider nails and screws to be what holds a structure together. As a result, I think that many structures today are held together by little more than nails and screws. I often see knee braces bolted to the side of a post for a pergola when they should be positioned between the post and beam to take the load directly. Fasteners should not be load-bearing! They should be used to pin a piece of lumber into a position that allows it to shoulder the load directly. Nails and screws are fast. When used appropriately, they can keep costs down by reducing the time it takes to build something. But they are not the answer to everything. Joist hangars do little to stop a deck from pulling away from a house, just as nailing from the side is not a replacement for putting a post directly under a beam. On more than one occasion I've solved a challenging framing problem by employing lap-joints. I've used lap-jointed framing to build curves without having to bend wood, and in the example shown I've used them simply to avoid having to look at an unsightly beam underneath a raised section of deck. I cut notches half way through my beam where the joists will go, then I cut a corresponding notch into each joist that allows it to fit into the notch in the beam. This allows the joists to cantilever 'through' the beam, which gives me a number of advantages. Using this technique, I can build deck frames tight to the ground without having to rim the structure with joist-hangared beams. I can also use the cantilever to sculpt the edge of the deck into nearly any shape. As the lumber is locked in from every direction, it is also a far stronger joint than a joist-hangared butt-end, as it resists pulling away, and it is stronger than joist-on-beam because it does not allow for any twisting or 'flopping' of the joists. The beam and joist are locked together, and they each replace the missing pieces of one another, so there is no strength lost in either member. -Tyler Collins, Operations Manager

Sloane Square No.92 External Wall Cabinet. Archway House No.106 External Base Cabinets. Leadenhall No.118 Larder Exterior. Kitchen by Smallbone of Devizes. Smallbone’s Beaconsfield showroom.