Concept Project of Zero Energy Building

Perlova, Elena; Platonova, M. V.; Горшков, А. С.; Rakova, Xenyiya

doi:10.1016/j.proeng.2015.01.522

Cited by 32 publications

(12 citation statements)

References 10 publications

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“…9. In [9] were suggested several architectural techniques to improve the energy efficiency such as the optimal building orientation, the presence of the vestibule at the entrance, pent roof on a low-light side, and maximum glazing northwestern facades and blank walls on the low-light scenes sides, and improvements of control solutions following engineering systems: heating (remote transmission of data and remote control of the system, quick and detailed notifications about current state of the systems), ventilation (regulated air supply, exhaust mechanical ventilation equipped with heat recovery of the ground), air conditioning (high quality and low energy cost).…”

Section: Resultsmentioning

confidence: 99%

Systematic Literature Review on Zero Energy Buildings

Bahrami¹

2021

Preprint

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Section: Resultsmentioning

confidence: 99%

Systematic Literature Review on Zero Energy Buildings

Bahrami¹

2021

Preprint

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“…The total estimated GFA by year was then classified as under 10 years old and over 10 years old. This was done because buildings under 10 years old are subject to ZEB standards (Perlova et al, 2015;Saman, 2013;Stefanović et al, 2014), while over-10-year-old-buildings are subject to retrofitting (Arikan et al, 2005;McArthur and Jofeh, 2015).…”

Section: Projecting Buildings' Gross Floor Areamentioning

confidence: 99%

How can we estimate carbon emissions and reduction of buildings at the local government level in South Korea?

Park¹,

Kim²

2022

J. People Plants Environ

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Background and objective: Carbon neutrality must be achieved across societal sectors through carbon neutral policies. Therefore, local governments, which realize the actual greenhouse gas (GHG) reduction, must develop GHG reduction strategies. This study aims to present information on the GHG reduction of the building sector (BS) at the local government level, for the carbon neutrality by 2050 (CN).Methods: The gross floor area (GFA) of all buildings and the total floor area of household (HBs), business (BBs), and public buildings (PBs) and by 2050 were predicted using building and demographic information from Jeollanam-do. Buildings were classified as over or under 10 years old. GHG emissions projection by 2050 were combined the GFA prediction results with public information on building energy consumption (BEC). After adjusting the nationwide CN goal for the BS in Jeollanam-do, the pathways for two scenarios were to estimate GHG reduction.Results: HBs showed the steepest increase in GFA, while BBs and PBs showed a very modest increase. About 30% of HBs and BBs were under 10 years and about 70% were over 10 years. The HB's GHG emissions increased remarkably, reflecting the GFA results, while the emissions of BBs and PBs didn't raised much. GHG reduction targets by 2030 were calculated as 1.4, 0.7, and 0.35 million TOE for HBs, BBs, and PBs, respectively. Reduction Scenario 1 shows a straight-line path with a negative slope from 2023. Reduction Scenario 2 shows an increase in emissions after 2023, which begins to decrease from 2028, falling with a curved steep slope until 2035, followed by a very modest decline until 2050.Conclusion: This study calculated GHG emissions from the BS by 2050 using the latest information on BEC and GHG calculation guidelines. The method in this study helps establish regional/local GHG reduction targets, setting scenarios, and estimating GHG reduction.

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“…A structure that is built without adding to GHG discharges or using more energy than it can produce over its lifetime is described as NZE [40]. They provide power without any dependence on centralized distribution [41].…”

Section: Smart Energy Managementmentioning

confidence: 99%

Potential Applications of 5G Network Technology for Climate Change Control: A Scoping Review of Singapore

Huseien

Shah

2021

Sustainability

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Climate change is one of the most challenging problems that humanity has ever faced. With the rapid development in technology, a key feature of 5G networks is the increased level of connectivity between everyday objects, facilitated by faster internet speeds with smart facilities indicative of the forthcoming 5G-driven revolution in Internet of Things (IoT). This study revisited the benefits of 5G network technologies to enhance the efficiency of the smart city and minimize climate change impacts in Singapore, thus creating a clean environment for healthy living. Results revealed that the smart management of energy, wastes, water resources, agricultures, risk factors, and the economy adopted in Singapore can remarkably contribute to reducing climate change, thus attaining the sustainability goals. Hence, future studies on cost-effective design and implementation are essential to increase the focus on the smart city concept globally.

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Concept Project of Zero Energy Building

Cited by 32 publications

References 10 publications

Systematic Literature Review on Zero Energy Buildings

Systematic Literature Review on Zero Energy Buildings

How can we estimate carbon emissions and reduction of buildings at the local government level in South Korea?

Potential Applications of 5G Network Technology for Climate Change Control: A Scoping Review of Singapore

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