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Design Criteria for Acoustic Comfort Performance in High-rise Buildings

Deepti Pande Rana

Abstract


The design criteria for high rise and traditional buildings take issue in acoustics as similar applies for engineering and architectural design. The most common sources for vibration and noise are: the effect of wind on structural systems the wind effects structural systems, high speed elevators, the dimensions of the facade, mechanical and electrical systems, and occupied workplace areas. These is countered by the recent developments in property style, structure systems and building techniques making new main research areas for acoustics with solutions for: stabiliser systems, atriums and interior gardens for natural ventilation and lighting, economical use of solar and wind energy, smart building automation, advanced facade systems. High buildings; in terms of acoustics as well as in the fields of engineering and architecture, compared to other buildings have different design criteria. Structural sounds caused by wind, fast elevators, mechanical and electrical systems, facades and open office areas are the main sources of vibration and noise in high-rise buildings can be counted as. The main acoustic requirements specific to the high rise building typology have been determined through the project on the subject studies and literature were evaluated. This research reviews the literature and projects regarding acoustic comfort and ensuing the special acoustic needs to style this kind of building in an exceedingly property method.


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Die neue Bayerische Bauordnung. (2008) [Online] Available from https://docplayer.org/49744497-Die-neue-bayerische-bauordnung-baybo.html

Sev, A. Sürdürülebilir Mimarlık. YEM Yayın. 2009: 14-53.

Sev, A., Başarır, B. Geçmişten Geleceğe Enerji Etkin Yüksek Yapılar ve Uygulama Örnekleri, X.Ulusal Tesisat Mühendisliği Kongresi, İzmir. 2011.

Swift, P.B., Stead M.J. Tall Building Acoustics and the Challenges of Sustainability. The Structural Design of Tall and Special Buildings. 2008; 17(5): 977-988.

Palmer, R. (2008) Noise In High Rise Buildings. CTBUH 8th World Congress, Dubai. [Online] Available from https://global.ctbuh.org/resources/papers/download/1279-noise-in-high-rise-buildings.pdf.

Tall Buildings in Numbers. CTBUH Journal. 2010; 2: 40-41.

Zhou,Y., Li,H. Analysis of a high-rise steel structure with viscous damped Outriggers. The Structural Design of Tall and Special Buildings. 2014; 23(13): 963-979.

Choi,Ho, Joseph, Mathias. Outrigger Design for High-Rise Buildings. United States: Routledge; 2014.

Nishitani A., Inoue Y. Overview of the application of active=semiactive control to building structures in Japan. Earthquake Engineering Struct. Dyn. 2001; 30(11): 1565–1574.

Fraunhofer, ''Anti-noise''silences wind turbines, erişim tarihi:25.08.2015, 14:06, http://www.archiv.fraunhofer.de/archiv/pi-en-2004 2008/EN/press/pi/2008/08/ResearchNews082008Topic3.html

Powley, T., Elevators race to top as technology matches skyscraper growth, 2014, erişim tarihi: 04.09.2015 15:30, http://ctbuh.org/LinkClick.aspx?fileticket=%2FzsLUkpeErY%3D

Huang,C, Hsin, E. (2014, Nov.) Field Floor Impact Noise South-East Queensland(Australia), Internoise, Australia. [Online] Available from https://www.acoustics.asn.au/conference_proceedings/INTERNOISE2014/index.htm

Fullerton, J. (2006, Dec.) Review of Elevator Noise and Vibration Criteria, Sources and Control for Multifamily Residential Buildings. [Online] Available from https://www.acentech.com/wp-content/uploads/ElevatorNoise.pdf

Lida, M., Sakuma, Y. Comfort of Ultra-High Speed Elevators. Mitsubishi Electric. 2013; 144: 2-5.

Boglev, D. (2008) Acoustic Design Practices for Sustainable Buildings. Acoustics. [Online] Available from https://acoustics.asn.au/conference_proceedings/AAS2008/papers/p16.pdf

Muehleisen, R. Acoustics of Green Buildings. Informe Design. 2005; 8(1).


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