Concepedia

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green building

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1.4M

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Lifecycle Energy Paradigm

1994 - 2000

The period foregrounds a lifecycle view of energy and carbon, linking embodied and operational energy to standards and policy across residential, commercial, and regional scales. Systematic environmental performance assessment and design-conscious evaluation emerge as core methods, merging metrics, measurement, and practitioner input to drive green building practice. Passive design, cool roofing, natural ventilation, and climate-management systems become dominant strategies for energy savings, while embodied energy in materials shapes construction decisions.

Energy and carbon outcomes dominate the field, linking embodied and operational energy to standards, policy, and CO2 reduction across residential, commercial, and regional building sectors [1], [3], [6], [8], [17].

Systematic environmental performance assessment and design-conscious evaluation emerge as core methodological patterns, combining performance metrics, measurement, and practitioner perspectives to advance green building practice [4], [9], [10], [16].

Passive design and cooling strategies dominate energy-saving approaches, including passive roofs, cool roof materials, and efficient heating/cooling design coupled with natural ventilation studies [7], [11], [13], [20].

Greenhouse environmental control systems and design requirements focus on climate management, ventilation, materials, and structural configurations to optimize energy and crop outcomes [10], [14], [15], [19], [20].

Embodied energy and material energy in construction are central, with NZ coefficients, embodied energy studies in houses, and CO2 implications [1], [2], [8].

Lifecycle Energy and Environmental Performance

2001 - 2009

Lifecycle Zero-Energy Building Framework

2010 - 2016

Lifecycle-Based Net-Zero Design

2017 - 2023