The buildings in which we live and work are a major consumer of energy, responsible for some 30—40 percent of all carbon dioxide emissions, a similar share of total solid waste, and 12 percent of all fresh water used. With the rate of urbanization reaching record levels, there will be more construction and buildings than ever before.
The introduction and enforcement of effective public policies can be the cheapest and most efficient method for promoting sustainability in the construction and use of buildings, Taipale says. The goal is to radically reduce buildings' environmental footprint and long-term negative social and financial effects.
In search of a "best policy" in her State of the World 2012 chapter, "From Light Green to Sustainable Buildings," Taipale suggests considering four dimensions in a policy package:
Process. It is important to take into account the entire life-cycle of a building, from design and construction to its use and demolition. Some posit that designating a sustainability coordinator for the planning and construction period should be a requirement for any building permit. An additional tool for the time span when the building is being used is a mandatory "maintenance diary," documenting the various ways the building is serviced and renovated.
Performance. What matters most is how well the entire building performs, not how its individual parts might adhere to requirements. Setting minimum energy performance standards, for example, makes more sense than specifying the thickness of a thermal insulation. A growing set of core criteria has evolved by which to measure building performance in terms of resource use. These consider greenhouse gas emissions, energy and water use, and waste production, among others. Policies can require that certain minimum performance standards and benchmarks be met.
Sustainable Infrastructure. Buildings need efficient infrastructures that save resources and provide everyone equal access to basic services such as fresh water and sanitation, energy, communication, and public transport. The quality of these infrastructures determines the level of urban sustainability. National water legislation, for example, can help secure access to safe drinking water for urban residents for a fair price.
Resource Use. Sustainability of resource use considers financial, human, and natural resources. Shifting toward a greater reliance on renewable energy is the most efficient method to reduce carbon dioxide emissions and mitigate climate change. Such a shift also helps reduce local air pollution and health hazards. We need higher energy performance requirements for new construction and refurbishment, however, because it does not make much sense to waste renewable energy in buildings that are not energy efficient.
(Excerpt of article by Environmental News Network . NOT AFFILIATED WITH LAMBOO)
Lamboo Technologies' manufacturing processes use 15% less embodied energy than that of engineered wood, and 300% less embodied energy than aluminum and steel. Lamboo, on average, is 20% more stable than wood in moisture and temperature changes, 10 times stronger than wood in tension and 3 times stronger mechanically. Additionally bamboo produces 30% more oxygen than a like-sized timber forest while sequestering 35% more carbon and only requires 6-8 years to reach maturity. All of these outstanding attributes make bamboo a great resource for the construction industry.
LEED Credits available through Lamboo integration.
Incorporating Lamboo (LVB) Laminated Veneer Bamboo into projects can earn LEED (Leadership in Energy and Environmental Design) certification under the following:
- MR Credit 6 - Rapidly renewable materials
- IEQ Credit 4.4 - Low-emitting materials
- ID Credit 1 - Innovation in Design
(Environmentally Preferable Material)
- ID Credit 2 - Innovation in Design
(Life Cycle Assessment / Environmental Impact)
- FSC Certification - Available Upon Request