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| Format: | Recurso digital |
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Zenodo
2024
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| Accès en ligne: | https://doi.org/10.5281/zenodo.18138616 |
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Table des matières:
- The conclusion of COP28 marked a watershed moment as it finalized the inaugural global stocktake of climate efforts under the Paris Agreement, underscoring insufficient advancement in critical areas such as greenhouse gas reduction, climate resilience enhancement, and support for vulnerable nations. In light of these findings, countries resolved to expedite progress across these realms by 2030, urging governments to prioritize the shift from fossil fuels to renewable sources like wind and solar power in their upcoming climate commitments. This mandate holds particular significance for Delhi, where enhancing building resilience through climate-adaptive design stands as a linchpin for fostering sustainable urban development amidst evolving climate dynamics. This discussion explores urban energy and evolution through site-specific art, sparking new perspectives amid declining traditional influences. It examines site specificity's multifaceted role in culture, blending historical roots with contemporary urban dynamics and identities, fostering fresh approaches in artistic expression and cultural identity. This work employs advanced computational technologies to develop an energy efficient buildings for Delhi, tailored to accommodate various growth scenarios and the city's diverse climate. It utilizes quantitative analysis, energy tools, stakeholder engagement, and innovative case studies, demonstrating exceptional methodological rigor. The emphasis is placed on energy conservation and the development of resilient infrastructure tailored to Delhi's climatic diversity, ranging from the arid regions of Rajasthan to the humid and monsoon-prone areas of the Western Ghats. Delhi, with its pronounced seasonal variations and air quality challenges, receives special attention. Strategies include optimizing building orientation, integrating passive cooling techniques, enhancing insulation, and employing energy-efficient lighting and HVAC systems suitable for extreme temperatures. The conclusion stresses cooperatives' role in sustainable energy management. This spatial planning strategy promotes Delhi's energy resilience by addressing its unique climatic challenges and enhancing office building efficiency. Modern computational methods create an adaptable layout focused on Delhi's energy efficiency and diverse climate, supported by rigorous quantitative research and stakeholder engagement.