Vai al contenuto principale della pagina
Autore: | Nastasi Benedetto |
Titolo: | Energy Consumption in a Smart City |
Pubblicazione: | Basel, : MDPI - Multidisciplinary Digital Publishing Institute, 2022 |
Descrizione fisica: | 1 electronic resource (270 p.) |
Soggetto topico: | Research & information: general |
Physics | |
Soggetto non controllato: | building energy flexibility |
HOMER software | |
peak clipping | |
load shifting | |
energy saving | |
building performance assessment | |
indoor environment quality | |
occupants' satisfaction | |
post-occupancy evaluation | |
Green Building Index | |
tropical climate | |
building performance simulation | |
CO2 emission | |
occupant's comfort | |
window allocation | |
climate change | |
energy consumption | |
building energy load | |
thermal load | |
future weather | |
operative temperature | |
cooling load | |
daily energy need | |
solar gains | |
nZEB | |
historical buildings | |
TRNSYS | |
buildings retrofitting | |
buildings office | |
economic feasibility | |
Renewable Energy Systems (RESs) | |
Zero Energy District (ZED) | |
Digital Twin (DT) | |
Building Information Modelling (BIM) | |
Geographic Information System (GIS) | |
Revit software's | |
asymmetric duty cycle control | |
bifilar coil | |
pulse duty cycle control | |
induction heating | |
metal melting | |
phase shift control | |
pulse density modulation | |
series resonant inverter | |
variable frequency control | |
building operation and maintenance | |
extended reality | |
virtual reality | |
augmented reality | |
mixed reality | |
immersive technologies | |
digital twins | |
metaverse | |
positive energy district | |
district energy infrastructure | |
decarbonisation of neighbourhoods | |
GIS | |
energy transition | |
smart city policy | |
carbon emission intensity | |
digital transformation | |
green innovation | |
difference-in-differences | |
Persona (resp. second.): | MauriAndrea |
NastasiBenedetto | |
Sommario/riassunto: | A Smart City is the perfect environment to study and exploit the interactions between actors because its architecture already integrates vaious elements to collect data and connect to its citizens. Furthermore, the proliferation of web platforms (e.g., social media and web fora) and the increased affordability of sensors and IoT devices (e.g., smart meters) make data related to a large and diverse set of users accessible, as their activities in the digital world reflect their real-life actions. These new technologies can be of great use for the stakeholders as, on the one hand, they provide them with semantically rich inputs and frequent updates at a relatively cheap cost and, on the other, form a direct channel of communication with the citizens. To fully exploit these new data sources, we need both novel computational methods (e.g., AI, data mining algorithms, knowledge representation) that are suitable for analyzing and understanding the dynamics behind energy consumption and also a deeper understanding of how these methods can be integrated into the existing design and decision processes (e.g., human-in-the-loop processes).Therefore, this Special Issue welcomed original multidisciplinary research works about AI, data science methods, and their integration in existing design/decision-making processes in the domain of energy consumption in Smart Cities. |
Titolo autorizzato: | Energy Consumption in a Smart City |
ISBN: | 3-0365-5963-9 |
Formato: | Materiale a stampa |
Livello bibliografico | Monografia |
Lingua di pubblicazione: | Inglese |
Record Nr.: | 9910637793403321 |
Lo trovi qui: | Univ. Federico II |
Opac: | Controlla la disponibilità qui |