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鼓膜在蝉发声中的作用。

The role of the tymbal in cicada sound production.

作者信息

Young D, Bennet-Clark H

出版信息

J Exp Biol. 1995;198(Pt 4):1001-20. doi: 10.1242/jeb.198.4.1001.

DOI:10.1242/jeb.198.4.1001
PMID:9318802
Abstract
  1. The tymbal of Cyclochila australasiae consists of a biconvex membrane bearing alternating long and short ribs anteriorly and an irregularly shaped tymbal plate posteriorly. These sclerotised regions are coupled together by the surrounding highly flexible cuticle, which contains resilin. Dorsally, there is a thick pad of resilin, which functions as a spring, returning the tymbal to the out position and maintaining the stress on the long ribs. 2. Contraction of the tymbal muscle causes the tymbal plate to swing inwards, acting as a lever so that the surface of the tymbal moves through more than twice the distance of muscle shortening. This produces an inward movement and twisting of the dorsal ends of the long ribs, which then buckle in sequence, with each rib undergoing a sudden deformation from a convex to a V-shaped profile. Buckling takes place at the rib's weakest point, which is the narrow, highly sclerotised mid-region. 3. Inward buckling of the tymbal generates a loud click with a dominant frequency around 4 kHz. Resonances close to 4 kHz can be demonstrated in a buckled-in tymbal when driven by internal sound or by vibration at the tymbal plate. These resonances occur in sealed cicadas and those in which the abdominal air sac has been opened at both its anterior and posterior ends, which shows that the resonances are not due to the air sac; the tymbal itself is a resonant system. The maximum amplitude of tymbal vibration occurs at the V-shaped dimples in the centre of the long ribs. 4. When the tymbal plus abdominal air sac system is driven by vibration at the tymbal plate, the Q3dB of the sound radiated through the tympana is about 12.5, which is approximately the sum of those of the tymbal (Q=9.3) and of the air sac (Q=3.4) resonators. When the tymbal is not loaded by the air sac, i.e. in the sealed cicada and open cicada preparations, the Q3dB of its resonance is higher, between 13 and 20. 5. The click produced as the tymbal pops out is over 20 dB quieter than the in-click and has a dominant frequency around 6 kHz. When driven in the resting position, resonances are found close to 6 kHz but there is only a weak general vibration of the ribs and tymbal plate. When the tymbal is pushed in gradually, the resonant frequency changes from about 5.5 kHz to about 4.3 kHz as the tymbal buckles inwards. The left and right tymbals of the same insect may differ slightly in their acoustic properties. 6. As the tymbal buckles inwards, it displaces a volume of approximately 6 µl into the abdominal air sac volume of about 2 ml. The resulting sound pressure inside the air sac attains peak values of 155­159 dB SPL; the root mean square values are 141­144 dB SPL. The mean peak value just outside the tympana is 148.5 dB SPL. 7. Overall, the present work supports and extends our earlier model of cicada sound production: the tymbal click provides a coherent resonant source that drives the abdominal resonator, from which sound is radiated via the tympana. At the same time, the system provides the pressure transformation between muscle power and sound power that is desirable for efficient sound radiation.
摘要
  1. 澳洲周期蝉的鼓膜由一块双凸膜构成,其前部有交替排列的长肋和短肋,后部有一块形状不规则的鼓膜板。这些硬化区域通过周围高度柔韧的表皮连接在一起,表皮中含有弹性蛋白。在背面,有一块厚厚的弹性蛋白垫,其作用如同一个弹簧,使鼓膜恢复到向外的位置,并维持长肋上的应力。

  2. 鼓膜肌收缩会使鼓膜板向内摆动,起到杠杆作用,从而使鼓膜表面移动的距离超过肌肉缩短距离的两倍。这会导致长肋背端向内移动并扭转,然后依次弯曲,每根肋都会从凸形突然变形为V形。弯曲发生在肋的最薄弱点,即狭窄且高度硬化的中间区域。

  3. 鼓膜向内弯曲会产生一声响亮的咔哒声,其主频约为4千赫兹。当由内部声音或鼓膜板的振动驱动时,在弯曲的鼓膜中可以证明接近4千赫兹的共振。这些共振在密封的蝉以及腹部气囊前后两端都已打开的蝉中都会出现,这表明共振并非由气囊引起;鼓膜本身就是一个共振系统。鼓膜振动的最大振幅出现在长肋中央的V形凹痕处。

  4. 当鼓膜加腹部气囊系统由鼓膜板的振动驱动时,通过鼓膜辐射出的声音的3分贝带宽品质因数约为12.5,这大约是鼓膜(品质因数Q = 9.3)和气囊(品质因数Q = 3.4)共振器品质因数之和。当鼓膜没有被气囊加载时,即在密封蝉和开放蝉的制备中,其共振的3分贝带宽品质因数更高,在13到20之间。

  5. 鼓膜弹出时产生的咔哒声比向内弯曲时的咔哒声安静超过20分贝,其主频约为6千赫兹。在静止位置驱动时,会发现接近6千赫兹的共振,但肋和鼓膜板只有微弱的整体振动。当鼓膜逐渐向内推时,随着鼓膜向内弯曲,共振频率从约5.5千赫兹变化到约4.3千赫兹。同一只昆虫的左右鼓膜在声学特性上可能会略有不同。

  6. 当鼓膜向内弯曲时,它会将大约6微升的体积排入约2毫升的腹部气囊中。气囊内部产生的声压峰值达到155 - 159分贝声压级;均方根值为141 - 144分贝声压级。鼓膜外侧的平均峰值为148.5分贝声压级。

  7. 总体而言,目前的研究支持并扩展了我们早期关于蝉发声的模型:鼓膜咔哒声提供了一个连贯的共振源,驱动腹部共振器,声音通过鼓膜辐射出去。同时,该系统提供了肌肉力量和声功率之间的压力转换,这对于高效的声音辐射是理想的。

相似文献

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The role of the tymbal in cicada sound production.鼓膜在蝉发声中的作用。
J Exp Biol. 1995;198(Pt 4):1001-20. doi: 10.1242/jeb.198.4.1001.
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Tymbal mechanics and the control of song frequency in the cicada Cyclochila australasiae.澳洲周期蝉的鼓室力学与鸣声频率控制
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Asymmetry of tymbal action and structure in a cicada: a possible role in the production of complex songs.蝉中鼓膜活动与结构的不对称性:在复杂鸣声产生中的可能作用。
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