- General Site Resources
- Define Site Preservation Goals
- Site Selection Criteria
- Urban Redevelopment
- Brownfield Development
- Mixed Use Development
- Proximity to Public Transport
- Vandalism Deterrence and Management
- Design for Safety
- Social Gathering Spaces
- Green Corridors Integrated in Landscaping Plans
- Master Plan Designed for Future Growth
- Reduction of Site Disturbance and Building Footprint
- Design for Walking and Bicycling
- Alternative Transportation and Parking Considerations
- Site Survey
- Bicycle Parking Facility
- Natural Storm Water Treatment
- Stormwater Management
- Shaded and Porous Paving
- Tree and Biomass Integral Plantings
- Landscaping
- Cool Sites
- Green and Cool Roofs
- Light Pollution Reduction
- Composting Systems
- Light Pollution Reduction
- Non-Toxic Pest and Weed Control
- Site Debris Reuse
- Plant Relocation and Reuse
- Erosion Control Plan
- General Water Resources
- Water Conservation Goals
- Water Reuse and Conservation Programs
- Water Usage Budget
- Precipitation Research
- Composting Toilets
- Alternative Waster Water Management and Treatment
- Co-locating Water Use Areas
- Rainwater and Catchment Systems
- Water Efficient Fixtures
- Water Efficient HVAC
- Alternative Water Sanitation
- Water Efficient Landscaping and Xeriscaping
- High Efficiency Irrigation
- Advanced Water Use Reduction
- High Efficiency Plumbing Fixtures and Appliances
- Bacteria Control in Plumbing
- Water Management Program
- General Energy Resources
- Baseline Energy Performance Goals
- Energy Scheming Software
- Life Cycle Analysis
- Energy Star Benchmarking
- Energy Incentive Programs
- Climate Survey
- Earth Sheltered Construction
- Landscaping for Energy Efficiency
- Cogeneration Plants
- Peak Energy Demand Budget
- Optimized Building Orientation and Layout
- Heat Recovery Systems
- Solar Heating and Hot Water
- Passive Cooling and Ventilation
- Daylighting
- Ground Source Heat Pumps
- Energy Efficient Technologies
- Wind
- Renewable Energy Resources
- Building Integrated Photovoltaics
- Energy Star Roofs
- Sub Floor MEP Systems
- Double Wall Envelope
- Hi-Performance Glazing and Sun Shade Devices
- Insulation and Radiant Barriers
- Passive Solar Heating
- Hi-Performance HVAC and Ductwork
- Radiant Heating and Cooling
- Non-CFC Based HVAC
- Insulation
- Raised Heel Trusses
- High Performance Windows
- Advanced Ventilation Practices
- Duct Effectiveness
- High Efficiency Air Conditioning with Advanced Refrigerant
- Avoid Air Conditioning
- High Efficiency Water Heating
- Solar Water Heating
- Radiant Hydronic Space Heating
- High Efficiency Heating
- Energy Efficient Equipment
- Energy Efficient Lighting and Controls
- Energy Star Appliances
- Elevators
- On Site Electricity Generation
- Compliant Metering Systems
- Commissioning Plan Specs
- Energy Efficient Construction
- Educational Signage and Tours
- Training and Manuals
- Energy Star Certified Homes
- Green Energy Providers
- Energy Star Appliances
- Operation Manual for Equipment
- General Materials Resources
- Building Flexibility
- Recycled and Renewable Materials Goals
- Local Green Building Programs
- Adaptable Buildings
- Building Reuse
- Recycling Station and Waste Stream Program
- Design for Ease of Expansion and Reconfiguration
- Structural Insulated Systems
- Minimum Piping and Utility Runs
- Economic Structural and MEP Systems
- Rapid Renewable Materials
- Recycling Collection
- Wood Flooring Alternatives
- Natural Linoleum
- Durable Roofing
- Steel Framing
- Advanced Framing Design
- Engineered Lumber
- FSC Certified Woods
- High Volume Fly Ash in Concrete
- Recycled Aggregate
- Furniture and Outdoor Play Structures
- Recycled Products
- Reclaimed Materials
- Product Databases and Specifications
- Recycled Content in FFE
- Recycled Content Materials
- Manufactured Wood Products
- Certified Woods
- Local and Regional Materials
- Salvaged and Refurbished Materials
- Hazardous Materials and Waste
- Efficient Use of Construction Materials
- Construction and Demolition Waste Management
- General Indoor Environment Resources
- IAQ and Daylighting Goals
- Regulations on Indoor Quality
- Site Testing for Toxic Contaminants
- Elimination of PVC's
- Increased Fresh Air and Ventilation Delivery
- Daylighting and View Glazing
- Zero Tobacco Exposure
- Moisture Control
- Advanced Lighting and Glare Control
- Entryway Design
- Indoor Pollutant Source Control
- High Level Environmental Controls and Operable Windows
- Healthy HVAC Equipment and Air Intakes
- Cabinets, Counters, and Trim
- Carpeting
- Metal Coatings
- Adhesives and Sealants
- Indoor Paint
- Garage Ventilation
- High Efficiency Lighting
- Daylighting
- Low Emitting Building Products
- Hi-Performance Acoustics
- Moisture Shedding and Mold Avoidance
- Non-Toxic Treated Wood
- Monitoring Systems
- Low Emitting Carpets and Flooring
- Low Emitting Paints, Finishes, Adhesives and Sealers
- Post Occupancy IAQ Management
- Natural Termite and Mold Control
- Air Purification Technologies
- Construction IAQ Management
How does your project impact a site? Buildings have significant effects on their surroundings, including vegetation, wildlife habitats, and water movements (hydrology). A building can also influence a site's cultural history, urban density, and local infrastructure. The key is to realize that your development is not only ‘sitting' on the ground, affecting the site adjacent to it, but also radiating its affects on larger systems, both local and global.
How well does your project use water resources? As with other resources, our buildings utilize a great amount of water annually. Some of the water is used in manufacturing processes and industrial uses. Other uses are for general plumbing fixtures found in typical homes and offices. Nationally, we utilize more water than is recharged to the natural water systems which can lead to rationing and drought. With implementation of efficiency measures we can save vast amounts of this precious resource and save money on utility bills as well.
How much energy does your project use? Buildings use approximately 2/3 of the electricity produced in this country. This electricity is generally produced using vast amounts of fossil fuels, oil, and coal. The traditional processes of making electricity account for substantial air pollution and geologic erosion. There are a range of techniques, some simple and some more involved to reduce the amount of energy used by a building and its occupants. test
What's your building made of? Think of all the materials that go into a building – the concrete foundations, wood studs, carpet, steel hardware, doors, etc. Each material represents a process of resource extrication, manufacturing, transportation, and installation. These processes are responsible for energy use and are sources of pollution. Also remember that when buildings cease to be useful, they are mostly demolished and sent to landfills. Designers should endeavor to know more about where their materials came from and where they might go in the future.
How healthy are your spaces? Buildings without consideration of the potentially harmful impacts of some stimuli can affect their occupant's health. This usually stems from harmful toxins released from materials over time. Other impacts on an individual's health are from our need for fresh air, views, and daylight. Creating healthier indoor environments has been shown to increase productivity and reduce healthcare claims. Clean and sanitary indoor environments are important, but we should also realize the benefits of comfort on our occupants' mental health.
Analyze client's business plan; develop project scenarios and options; develop implementation plans and schedules
Analyze site; Evaluate site for project scenarios; Evaluate preliminary program options; Evaluate zoning and planning ordinance influence
Define project goals; Define spatial requirements, character, and budget restraints; Research major engineering systems; Research major architectural systems; Complete preliminary zoning ordinance and building code analysis; Reconcile construction budget with project
Advance engineering systems' components, sizes, layouts, interrelationships
Advance architectural systems and materials, such as exterior walls, exterior glazing, roofs, interior partition types, ceiling types, stair systems, vertical transportation systems, and finishes; Locate and size site utilities; Develop other major systems preliminarily; Final selection of major building systems and materials; Incorporate acoustic criteria; Reconcile construction budget with project
Address typical technical concerns for roofs: slopes; drains; penetrations; curbs; flashing; expansion and seismic joints; Address typical technical concerns for exterior walls: parapets; control, expansion and seismic joints; window and door installation and flashing; material designations; drips and weeps; changes of plane; penetrations; Address typical technical concerns for moisture protection: below grade and under-slab drainage and membranes; site drainage (incl. irrigation); below grade penetrations; exterior wall moisture barriers; Address typical technical concerns for access compliance: paths of travel, clearances; mounting heights; changes of plane; Address typical technical concerns for finishes; Address typical technical concerns for materials assembly methods
Observe construction process; Support design intent; Provide commissioning; Provide energy monitoring; Provide facility management; Provide post-occupancy evaluations