Karadeniz Kemenche的声学响应随音板厚度的变化

IF 1.8 4区 物理与天体物理
Akın Oktav
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引用次数: 0

摘要

研究了卡拉德尼兹琴(Karadeniz kemenche)的声学响应随音板厚度的变化。在获得乐器的最新模型时,最重要的挑战是所使用的正交异性木材材料所产生的不确定性。采用模型更新的方法来解决材料力学性能的不确定性。通过实验模态分析研究,对模型进行了更新和补充。给出了一种计算声模态频率的解析解。通过振动声分析对流固耦合进行了建模。将实验测量的非线性三轴加速度信号应用于乐器的桥架上,模拟弓的滑杆行为,进行声响应分析。最后,分析了声板厚度对声压振幅的影响。结果表明,当音板厚度为2.1 mm时,在340 Hz和900 Hz的共振处,声压幅值显著增加,且在较宽的范围内,音高频率幅值更高。当乐器的音板厚度为1.7 mm时,可以看到1040 Hz的音高频率的幅度明显增加,因此可以产生更高的音高。根据研究模型的结果,当乐器的音板厚度为2.9 mm时,可以获得700 Hz左右的强音高频率。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

The Variation in the Acoustic Response of the Karadeniz Kemenche Depending on the Thickness of the Soundboard

The Variation in the Acoustic Response of the Karadeniz Kemenche Depending on the Thickness of the Soundboard

The variation in the acoustic response of the Karadeniz kemenche, a bowed string musical instrument, depending on the thickness of the soundboard is investigated. The most important challenge in obtaining an updated model for the musical instruments is the uncertainties arising from the orthotropic wood materials used. A model update procedure is implemented to resolve uncertainties in the mechanical properties of materials. The model is updated and complemented through an experimental modal analysis study. An analytical solution for the calculation of acoustic mode frequencies is implemented. A vibroacoustic analysis is performed to model the fluid–structure interaction. An acoustic response analysis is conducted by applying the experimentally measured nonlinear triaxial acceleration signal to the bridge of the musical instrument to simulate the slip–stick behaviour of the bow. Finally, the effect of soundboard thickness on the amplitude of acoustic pressure is examined. It is revealed that the amplitude of acoustic pressure substantially increases at the resonances that appeared at 340 Hz and 900 Hz, when the thickness of soundboard is 2.1 mm, and the amplitudes of pitch frequencies are observed to be higher in a broadband range. When the thickness of the soundboard of the instrument is 1.7 mm, it is seen that the amplitude of the pitch frequency of 1040 Hz increases significantly, and thus, it can produce a higher-pitched sound. When the soundboard thickness of the instrument is 2.9 mm, a strong pitch frequency of around 700 Hz can be obtained, according to the results of the studied model.

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来源期刊
Acoustics Australia
Acoustics Australia ACOUSTICS-
自引率
5.90%
发文量
24
期刊介绍: Acoustics Australia, the journal of the Australian Acoustical Society, has been publishing high quality research and technical papers in all areas of acoustics since commencement in 1972. The target audience for the journal includes both researchers and practitioners. It aims to publish papers and technical notes that are relevant to current acoustics and of interest to members of the Society. These include but are not limited to: Architectural and Building Acoustics, Environmental Noise, Underwater Acoustics, Engineering Noise and Vibration Control, Occupational Noise Management, Hearing, Musical Acoustics.
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