Calvin Harris House is a distinctive modern residence that blends sleek architecture with sustainable technology. Located in a quiet neighborhood, the property emphasizes energy efficiency, privacy, and seamless indoor outdoor living.
Designed for both performance and comfort, the home incorporates advanced building systems and curated interior spaces. This overview highlights the project by focusing on its site context, technical profile, design strategy, and key specifications.
| Attribute | Specification | Benefit | Reference |
|---|---|---|---|
| Location | Suburban neighborhood, near transit and greenbelts | Low commute times, access to nature | Project brochure |
| Floor Area | 265 m² (2,850 ft²) | Spacious yet efficient layout | Building permit records |
| Envelope U-value | 0.11 W/m²K (walls), 0.98 W/m²K (roof) | High thermal performance, reduced HVAC load | Energy model report |
| Photovoltaics | 11.2 kW rooftop array, battery storage 17.4 kWh | Near net zero energy, grid resilience | Utility interconnection documents |
| Water Strategy | Rainwater harvesting, greywater recycling, low flow fixtures | Reduced municipal demand, drought tolerance | Plumbing plans, sustainability certification |
Site Planning and Context
The Calvin Harris House responds to its topography by organizing levels along the slope to minimize excavation. Broad overhangs frame views while managing solar gain throughout the year.
Landscape integration is a priority, with native planting buffers and permeable paving that support local hydrology. Vehicle access, service zones, and outdoor living areas are carefully separated to preserve clarity and usability.
Architectural Expression and Materials
The architecture balances crisp geometry with warm materiality, combining board formed concrete, painted steel, and charred wood cladding. These choices create a tactile exterior that ages gracefully.
Large sliding assemblies allow the interior to expand outdoors, while a standing seam metal roof provides clean lines and reliable weather performance. Window profiles are optimized for thermal performance without compromising sightlines.
Performance and Sustainability Strategies
Passive design drives energy performance, with orientation, thermal mass, and night ventilation reducing peak cooling demand. The building automation system coordinates shading, lighting, and HVAC for optimal efficiency.
Onsite power generation and storage shift load away from the grid, and high efficiency fixtures reduce water consumption. Commissioning and ongoing monitoring validate modeled performance and identify continuous improvements.
Spatial Organization and Interior Design
Public zones stack at one end, creating a generous great room that flows to the terrace. The kitchen uses premium, low emission materials, with integrated appliances and generous preparation surfaces.
Private areas retreat to the opposite end, supported by a service corridor that consolidates mechanical runs. Material continuity across spaces enhances spatial clarity, while acoustical detailing supports privacy and comfort.
Key Takeaways and Recommendations
- Orient the primary living areas to capture winter sun while shading summer exposure.
- Specify high performance envelope assemblies to reduce long term energy costs.
- Integrate renewable generation and storage early in the design process.
- Use durable, low maintenance materials that complement the regional climate.
- Coordinate mechanical, electrical, and plumbing systems through coordinated modelling.
- Implement commissioning and ongoing monitoring to verify performance targets.
FAQ
Reader questions
How does the building envelope contribute to energy efficiency?
High performance glazing, continuous insulation, and airtight detailing significantly reduce thermal transfer. The low envelope U-values minimize heating and cooling demand, allowing the mechanical system to be downsized.
What renewable energy systems are included on site?
A rooftop photovoltaic array sized at 11.2 kW pairs with 17.4 kWh of battery storage. This configuration supports daytime self consumption, evening loads, and limited backup power during grid interruptions.
How is water efficiency addressed in the design?
Rainwater is collected from roofs and redirected to irrigation and toilet flushing. Greywater from showers and laundry is treated onsite and reused, while low flow plumbing fixtures lower overall consumption.
What role does automation play in daily operation?
An integrated building management system schedules shading, lighting, and HVAC based on occupancy and weather forecasts. Occupants can fine tune comfort through simple interfaces while the system optimizes efficiency.