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Architectural Acoustics, Second Edition presents a thorough technical overview of the discipline, from basic concepts to specific design advice. Beginning with a brief history, it reviews the fundamentals of acoustics, human perception and reaction to sound, acoustic noise measurements, noise metrics, and environmental noise characterization. In-depth treatment is given to the theoretical principles and practical applications of wave acoustics, sound transmission, vibration and vibration isolation, and noise transmission in floors and mechanical systems. Chapters on specific design p
Structural parts and elements of building --- Architecture --- Music --- Architectural acoustics. --- Sound. --- 699.844 --- 699.844 Against acoustic effects, noise. Sound-proofing. Sound insulation and absorption --- Against acoustic effects, noise. Sound-proofing. Sound insulation and absorption --- Acoustics --- Continuum mechanics --- Mathematical physics --- Physics --- Pneumatics --- Radiation --- Wave-motion, Theory of --- Acoustics, Architectural --- Buildings --- Absorption of sound --- Acoustical engineering --- Sound --- Environmental engineering
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Noise control --- Damping (Mechanics) --- Soundproofing --- Noise control. --- Soundproofing. --- Geluidshinder. --- Trillingen. --- Bruit, Lutte contre le --- Isolation acoustique --- Vibration --- Industrial Noise. --- Vibration. --- Insulation (Sound) --- Sound --- Noise prevention --- Sound insulation --- Insulation --- Absorption of sound --- Acoustical engineering --- Environmental engineering --- Noise --- Oscillations --- Waves --- Control measures --- Mechanical vibration --- Cycles --- Mechanics --- vibration (physical)
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Acoustics and protection against noise do not perhaps number among the primary parameters that normally influence the design of a building. Nevertheless, at the very latest when the lecturer in the seminar room cannot be heard, when the noise level in an open-plan office reaches unbearable levels, or when a neighbor's noise deprives you of sleep, it becomes clear just how essential acoustic can be to everyday well-being. it is not just concert halls or the amphitheaters of antiquity that call for acoustic quality; rather, every building, indeed every room, has an acoustic dimension that changes according to the nature of its particular requirements. This practice-oriented volume provides expert planners and architects but also interested developers with practical knowledge on the subject of acoustics in high-rise architecture, beginning with standards on methods of planning and prognosis and moving on to the areas of acoustics of rooms and architecture and noise protection in urban planning. Typologically organized chapters comment on proper approaches to the subject with examples of different types of building such as residential and office buildings, schools, kindergartens, lecture halls, event spaces, and so on, because appropriate acoustic conditions make an essential contribution to the success of a project. Schallschutz und Akustik gehören vielleicht nicht zu den primären Parametern, die den Entwurf eines Gebäudes normalerweise beeinflussen. Doch spätestens wenn man den Vortragenden im Seminarraum nicht versteht, der Geräuschpegel im Großraumbüro unerträgliche Ausmaße annimmt oder das Rumoren des Nachbars einem den Schlaf raubt, wird klar, wie wesentlich die Raumakustik zum alltäglichen Wohlbefinden beiträgt. Nicht nur Konzertsäle oder das antike Amphitheater erheben Anspruch auf akustische Qualität, sondern jedes Gebäude, sogar jeder Raum besitzt eine akustische Dimension, die je nach Funktion in ihren individuellen Anforderungen variiert. Der vorliegende Praxis-Band vermittelt allen Fachplanern, Architekten, aber auch interessierten Bauherren praxisnahe Kenntnisse zum Thema Akustik im Hochbau, angefangen von normativen Regelungen über Planungs- und Prognosemethoden bis hin zu den Bereichen Raumakustik, Bauakustik und Schallschutz im Städtebau. Typologische Kapitel erläutern beispielhaft den richtigen Umgang mit der Thematik an verschiedenen Gebäudearten wie beispielsweise Wohn- und Bürogebäuden, Schulen, Kindergärten, Hörsälen, Veranstaltungsräumen etc. , denn angemessene akustische Bedingungen tragen zum Erfolg eines Projektes massgeblich bei.
699.84 --- 699.86 --- 699 --- 69 --- Müller-BBM --- 699.844 --- 725.81 --- Akoestiek handboeken --- Geluidsisolatie van gebouwen 2000-2008 --- akoestiek --- geluidsisolatie --- 699.844 Against acoustic effects, noise. Sound-proofing. Sound insulation and absorption --- Against acoustic effects, noise. Sound-proofing. Sound insulation and absorption --- Akoestiek (architectuur) --- Akoestiek (bouw) --- Bouwakoestiek --- Isolatie (gebouwen) --- Bouwfysica --- Bouwtechniek --- Bouwwezen --- Geluidsisolatie. Lawaaibestrijding --- Openbare gebouwen concertgebouwen --- geluidsisolatie, lawaaibestrijding --- Protection of buildings against external influences --- golven (fysica) --- vibreren --- geluidshinder --- Structural parts and elements of building --- Acoustique architecturale --- Isolation acoustique --- Architectural acoustics. --- Tall buildings --- Soundproofing. --- Building materials. Building technology --- Akoestiek ; handboeken --- Geluidsisolatie van gebouwen ; 2000-2008 --- Openbare gebouwen ; concertgebouwen --- Architectural acoustics --- High buildings --- High-rise buildings --- Highrise buildings --- Multistory buildings --- Buildings --- Acoustics, Architectural --- Absorption of sound --- Acoustical engineering --- Sound --- Soundproofing --- Acoustics --- Environmental engineering --- Vibrations --- Building design --- Acoustique architecturale. --- Isolation acoustique.
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Modern societies have concerns about growing annoyance due to noise in private dwellings and in commercial worksites. People are exposed to the noise from neighbours, adjacent offices and road traffic which causes disturbance in sleep, physical or mental work impairments. Though ISO (International Standards Organization) provides sound insulation guidelines to protect citizens from the noise exposures, these guidelines do not provide an optimal acoustic satisfaction especially for specific sounds, for example a conversation varying in intelligibility. This work addresses the challenges in traditional sound insulation models, filters and auralization techniques, and establishes an interface between psychoacoustic research and building acoustics in audio-visual VR environments. Improvements are made in sound insulation prediction methods, filters construction and rendering techniques for sound insulation auralization. The virtual building acoustic framework (VBA) is developed toward real-time interactive audio-visual technology, to be able to introduce more realism and, hence, contextual features into psychoacoustic experiments. Listening experiments close to real-life situations are carried which showed that the VBA can be used as an alternate to design test paradigms which help to better analyse and interpret the noise impacts in built-up environments situations depending on the actual activities.
Hearing. --- Psychoacoustics --- Soundproofing --- Noise --- Virtual reality. --- Virtual reality in architecture. --- Sound. --- Psychological aspects. --- virtual building acoustics --- psychoacoustic experiments --- acoustics --- Acoustics. --- Acoustics --- Continuum mechanics --- Mathematical physics --- Physics --- Pneumatics --- Radiation --- Wave-motion, Theory of --- Environments, Virtual --- Virtual environments --- Virtual worlds --- Computer simulation --- Reality --- Architecture --- Insulation (Sound) --- Sound --- Sound insulation --- Absorption of sound --- Acoustical engineering --- Noise control --- Psychophysics --- Audition (Physiology) --- Physiological acoustics --- Bioacoustics --- Senses and sensation --- Audiology --- Auditory pathways --- Deafness --- Ear --- Listening --- Psychology --- Insulation --- Psychoacoustics. --- Soundproofing.
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Thanks to the progress made in materials research and to the introduction of innovative manufacturing technologies, a wide range of sound-absorbing elements are currently available to adjust the acoustic features of an environment. Nowadays, performance is only one of the required specifications, together with environmental compatibility, longevity, and affordable cost. This book collects the most recent advances in the broad-spectrum characterization of sound-absorbing materials used in civil, industrial, and tertiary applications, by means of experimental, numerical, or theoretical studies.
hollow perforated spherical structure with extended tubes --- low frequency sound absorption --- melamine foam --- wideband sound absorber --- speech clarity --- bass ratio --- sound absorption --- reverberation time --- acoustics --- aerogels --- modeling --- fiber --- porous materials --- acoustic measurements --- sound absorption coefficient --- cement-based materials --- building materials --- pervious concrete --- acoustic concrete --- household end-of-life materials --- building retrofitting --- sound insulation --- vulnerable houses --- circular economy --- egg-box --- cardboard --- textile waste --- reuse --- shunted loudspeaker --- optimal sound absorption --- fully exhaustive method --- steel industry by-products --- sound reduction index --- granular materials --- inverse method --- cross laminated timber --- impact noise --- rubber ball --- sustainable --- timber --- perforated plate --- stepwise apertures --- low frequency --- membranes --- measurement method --- transmission loss --- simulations --- experiment --- scattering effect --- diffusion coefficient --- reflecting panels --- QRD --- ISO 17497 --- n/a
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