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PHO103 - 言语解剖学

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呼吸、发声和构音如何产生言语:追踪气流从肺部经过声带到达声道。

虚拟语言学与文学校园 · 发布于 · 12 分钟 · 英语 · 许可:CC BY 3.0 · 来源:在 YouTube 上观看

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AI生成的摘要

本讲座概述了言语产生的三个核心机制:呼吸、发声和构音。呼吸以肺部气流的形式提供能量,而言语会改变正常的呼吸模式,使吸气相对较短,而呼气(在此期间产生可听输出)覆盖相对较长的时间。然后空气通过气管到达喉部,喉部的主要生物学功能是充当阀门;在言语中,它调节气流,声带振动产生嗓音,每秒周期数取决于年龄和性别。不同的发声模式通过喉部动作来区分,包括清音、正常嗓音、耳语、气声、嘎裂声和假声。最后,空气进入声道,在那里,主动构音器官(如 下唇、舌、声门和悬雍垂)在被动构音器官(如齿龈嵴)的支撑下,塑造言语声音。

根据文字记录生成。请对照原始视频检查链接段落。

带时间戳的章节摘要

言语解剖学:三个核心机制

  • [0:05] 三个核心机制负责言语产生,将详细探讨。
  • [0:19] 呼吸:肺部以气流的形式产生必要的能量。
  • [0:28] 发声:喉部作为气流的调节器,负责发声。
  • [0:38] 构音:声道通过多个构音器官对气流进行调节和调制。
  • [0:48] 这些机制将被详细探讨,从呼吸开始。

言语能量与肺部空气

  • [0:56] 在产生任何声音之前,需要某种形式的能量。
  • [1:03] 在言语中,能量以气流的形式存在。
  • [1:08] 这种空气通常来自肺部。
  • [1:20] 肺部空气通常被称为肺部的。
  • [1:33] 呼吸系统用于正常呼吸和言语。

言语时呼吸的变化

  • [1:45] 说话需要改变正常的呼吸模式。
  • [1:50] 通常我们每两三秒吸气和呼气一次。
  • [1:59] 说话时,我们快速吸气,然后非常缓慢地呼出空气,可能在再次吸气前持续五秒钟。
  • [2:13] 一个呼吸测试:吸气并慢慢数数;你应该能轻松数到九或十,深呼吸的话 20 应该不成问题。
  • [2:40] 在正常呼吸中,吸气和呼气覆盖大致相同的时间间隔。
  • [2:50] 在言语中,吸气相对较短,而呼气(在此期间产生可听输出)覆盖相对较长的时间。
  • [3:06] 当我们说话时,肺部减慢气流。

气道解剖:肺和气管

  • [3:13] 空气来自肺部。
  • [3:20] 空气通过气管。
  • [3:25] 有些人称气管为风管。

喉部功能与嗓音产生

  • [3:37] 喉部的主要生物学功能是充当阀门,关闭来自肺部的空气或防止异物进入气管。
  • [4:01] 在言语产生中,喉部调节来自肺部的气流以产生声学信号。
  • [4:26] 声带,有时称为声襞,位于此处。
  • [4:35] 声带动作最重要的效果是产生可听见的振动,一种称为嗓音的嗡嗡声。
  • [4:48] 这类似于让空气通过橡皮筋,产生可听见的振动,如果没有放大或共振体,声音相对柔和。
  • [5:35] 每个振动脉冲代表声带的一次开合运动。
  • [5:42] 每秒的周期数取决于年龄和性别:男性声音平均每秒振动约 120 次,女性声音平均约 220 次。

发声模式解释

  • [5:58] 根据喉部动作的类型,可以区分不同的发声模式。
  • [6:10] 清音,或零发声,是默认状态,在正常呼吸时使用,需要声门或多或少地广泛打开。
  • [6:26] 打开的声门导致声门静音,前提是跨声门气流速率低于会产生局部湍流的水平。
  • [6:42] 正常嗓音是指正常的声带振动沿声门的大部分长度发生。
  • [6:58] 耳语需要比声门的清音设置大得多的收缩,通常通过内收声带同时在软骨之间保持开口来实现。
  • [7:25] 在气声中,正常的声带振动伴随着一些连续的湍流气流。
  • [7:52] 嘎裂声是一种发声方式,其特征是声带振动频率低、开商极低,且周期性往往存在一定的不规则性。
  • [8:18] 假声是一种发声方式,其中声带被纵向拉伸,使其横截面变得相对较薄,主要作为歌唱中的一种发声设定而被听到。

声道与发音器官

  • [8:38] 空气经过气管和声门后,进入声道——一个长管状结构。
  • [9:00] 声道是语音得以发音的主要组成部分。
  • [9:05] 在声道中,气流受到若干可移动器官的影响,这些器官称为主动发音器官。
  • [9:22] 主要的主动发音器官是下唇、舌、声门和小舌。
  • [9:35] 舌参与所有元音和大多数辅音的发音。
  • [9:47] 小舌主动参与某些辅音的发音,而在另一些辅音中则保持被动。
  • [10:08] 主动发音器官由被动发音器官支撑,后者是声道中不移动的特定器官或部位。
  • [10:35] 齿龈嵴是一个被动发音器官,参与诸如“ata”和“assa”等辅音的发音。

言语产生机制回顾

  • [10:54] 通过主动和被动发音器官产生的语音称为发音。
  • [11:08] 言语产生有三个基本阶段:呼吸、发声和发音。
  • [11:25] 虚拟语言学园区提供永久免费访问录制期间在活动板上生成的电子讲义。
  • [11:40] 只需一个免费的 VLC 账户即可访问这些讲义并加入社区。

[0:04] 你好!在接下来的内容中,我将向你介绍言语解剖学的基本概念,其中有三个核心机制负责言语的产生。我们将详细地逐一考察它们。呼吸?即肺部以气流的形式产生必要的能量。发声,即喉部作为气流的调节器,并负责发声。

[0:37] 以及发音,即声道借助若干发音器官对气流进行调节和调制。让我们详细考察这些机制,先从呼吸开始。现在,在任何声音能够被产生之前。必须存在某种形式的能量。在言语中,能量以气流的形式存在。通常来自肺部。

[1:11] 肺部空气被提及,所以这就是空气。再见。而“肺部空气”通常被称为。肺部的。谢谢。是的。谢谢。我 这个呼吸系统用于正常呼吸,也用于言语。有趣的是我们改变正常呼吸模式以使我们能够说话的方式。

[1:50] 通常我们每两三秒吸气和呼气一次。如果你愿意可以计时。当我们说话时,我们快速吸气。然后非常非常缓慢地让空气呼出,可能过五秒才再次吸气。有些人能在需要吸气之前说相当长的时间。你一口气能说多少?

[2:20] 吸气。然后开始慢慢数数。- 一 二,3 到五,等等。你应该能轻松数到九或十。如果你深吸一口气,20 应该不成问题。所以在正常呼吸中,吸气和呼气覆盖大致相同的时间间隔。在言语中呢?

[2:53] 吸气相对较短,而呼气阶段——在此期间产生可听见的输出——覆盖相对较长的时间。所以当我们说话时,我们的肺部减慢气流。来自肺部的空气,这里是肺,然后经过我们的气管。这是气管。

[3:25] 有些人称之为气管,进入喉部。在途中空气经过喉。接下来让我们看看喉。现在,你可以在这里看到的喉的主要功能,让我们把它稍微放大一点。喉的主要功能——确切地说是主要生物学功能——是充当阀门。通过关闭来自肺部的空气或防止异物进入气管。

[4:01] 在言语产生中。喉以产生声学信号的方式调节来自肺部的气流。来自肺部的空气,这种空气经过声带之间。皱襞。现在,这里你看到声带。有时称为声带。

[4:35] 声带或声带动作最重要的效果是产生可听见的振动。一种称为嗓音的嗡嗡声。或振动 类似于让空气吹过橡皮筋的效果。那么让我们演示一下如果我让空气吹过橡皮筋会发生什么。这里我有一根小橡皮筋。现在如果我像这样让空气吹过它会怎样?是的。

[5:05] *打喷嚏* 怎么样?什么?你听到了吗?你能看到的是振动的效果。让空气吹过橡皮筋会产生可听见的振动,这里相对柔和,因为周围没有放大或共鸣的物体。现在每一次振动脉冲代表声带的一次开合运动。

[5:42] 每秒的周期数取决于年龄和性别。成年男性嗓音的振动约为每秒 120 次或周期。女性嗓音平均约为每秒 220 次。周期。根据喉部动作的类型,可以区分不同的发声方式。现在详细说明。清音或零发声是默认状态。

[6:17] 一种发声类型,嗯,它不是真正的发声,用于正常呼吸时,它需要声门或多或少地宽大开放。所以这里你看到声门,导致声门静音,前提是跨声门气流速率低于会在声门产生局部湍流的水平。正常嗓音或只是嗓音。谢谢。指的是正常声带振动沿声门大部分长度发生,声带。

[6:54] 振动。耳语!你们都能耳语,对吧?嗯,耳语需要比声门清音设置大得多的收缩,通常通过内收声带同时保持类视黄醇之间的开口来实现,声带附着的软骨。在气声嗓音中,所以这是气声嗓音。

[7:30] 在气声嗓音中,正常声带振动伴随一些连续的湍流气流。嗯,那嘎裂声呢?这是某种嘎裂声,你尤其可以在清晨做得很好。嗯,嘎裂声或嘎裂是一种发声模式,其特征是声带振动频率低,开商非常低,并且周期性常常有些不规则。

[8:07] 最后,你还记得比吉斯乐队吗?类似那样。他们非常擅长用假声唱歌。这种发声模式中声带纵向拉伸,使其横截面相对变薄。因此,假声主要作为歌唱中的发声设置被听到。嗯……

[8:38] 接下来发生了什么?呼吸?发声?嗯,一旦空气通过气管和声门,它就进入一个称为声道长的管状结构。这里又是声道。让我们稍微放大一点。好的。现在这是我们在其中发出语音的主要组件。在声道中,气流受到几个可移动器官的作用影响。

[9:11] 主动发音器官。主动发音器官正如这个词所说,积极参与语音的产生。主要的主动发音器官是下唇,积极参与圆唇元音如“u”或辅音如“a fa”;舌头,参与所有元音和大多数辅音的产生;声门,我们用它发出啊。

[9:47] 以及小舌,它积极参与某些辅音,如所谓的舌尖颤音“a”,但在其他辅音如“Aha!”中保持被动。这就是为什么我们在这里用特殊颜色表示小舌的视图。主动发音器官由许多被动发音器官支持,你可以在这个屏幕上看到。这些是声道中参与语音产生但不移动的特定器官或位置。

[10:29] 别告诉我你的牙齿会动,那一定是第三套牙齿了。例如,仅举其中一个,齿龈嵴,它参与辅音如“ata”,其中舌头接触齿龈嵴,或assa,其中摩擦噪声在舌头和齿龈嵴之间产生。通过所有这些器官,主动和被动发音器官,产生语音被称为发音。

[11:04] 嗯,就是这样。你现在应该理解语音产生的基本机制及其三个阶段:呼吸、发声和发音。顺便说一句,在我结束之前,让我提醒你,在虚拟语言学园地的工具箱中,你可以永久免费访问我们的电子讲座笔记,这些笔记是在录制此类视频时在我身后的这个活动板上制作的。

[11:40] 你只需要一个免费的VLC账户。所以加入我们,成为虚拟语言学园地社区的一员。好的,就到这里。在我们关于言语科学的电子讲座中再见,如果你喜欢,也可以在虚拟语言学园地再见。

查看英文原始字幕

[0:04] Hello! In the following, I'm going to introduce you to the basic concepts of speech anatomy, where three central mechanisms are responsible for the production of speech. and we will look at them in detail. Respiration? where the lungs produce the necessary energy in form of a stream of air Fonation where the larynx serves as a modifier to the air stream and is responsible for nation.

[0:37] and articulation where the vocal tract modifies and modulates the air stream by means of several articulators. Let us look at these mechanisms in detail and let's start with respiration. now before any sound can be produced at all there has to be some form of energy In speech, The energy takes the form of a stream of air Normally, coming from the lungs.

[1:11] Lung air is referred to, so this is The air. Bye. and "Lang Air" is normally referred to as pulmonic Thank you. Yeah. Thank you. I This respiratory system is used in normal breathing, and in speech. What is interesting is the way we change our normal pattern of breathing to enable us to speak.

[1:50] Normally we breathe in and out every two or three seconds. You can time it if you like. When we speak, We breathe in quickly. and then we let the air out very very slowly and it might be five seconds before we breathe in again. Some people can speak for quite a long time before needing to breathe in. How much can you say in one breath?

[2:20] Breathe in. and then start counting slowly. - one two, 3 for five, and so on. you should be able to get up to nine or ten easily. And if you take a deep breath, 20 shouldn't be a problem. So during normal breathing, inhalation and exhalation cover roughly the same interval In speech?

[2:53] inhalation is relatively short whereas the exhalation period during which the audible output is produced covers a relatively long period. So when we speak our lungs slow down the flow of air. The air coming from the lungs, here are the lungs, then move through our trachea This is the trachea.

[3:25] some people call it windpipe into the throat. and on the way the air Parsis the larynx. Let's look at the larynx. next. Now the primary function of the larynx which you can see here so let's enlarge it a little bit the primary function Primary biological function, to be precise, of the larynx is to act as a valve. by closing off air from the lungs or preventing foreign substances from entering the trachea.

[4:01] in speech production The larynx modifies the airflow from the lungs in such a way as to produce an acoustic signal. The air that comes from the lungs so this sort of air Parses between the vocal cords. folds Now, here you find the vocal folds. sometimes called vocal cords.

[4:35] The most important effect of vocal fold or vocal chord action is the production of audible vibration. a buzzing sound known as voice. or vibration Similar to the effect of blowing air through a rubber band. So let's demonstrate what happens if I blow air through a rubber band. Here I have a small rubber band. Now what happens if I blow air through it like this? Yeah.

[5:05] *sneezes* Well? What? You hear? and what you can see is the effect of vibration. the Blowing of air through a rubber band creates an audible vibration which is relatively soft here because there's no amplifying or no resonating body around it. Now each pulse of vibration represents a single opening and closing movement of the vocal folds.

[5:42] The number of cycles per second depends on age and sex. Average male voices vibrate at around 120 times or cycles per second. Women's voices average something like 220 times. cycles per second. Depending on the type of laryngeal action, different modes of phonation can be distinguished. in detail now. Voicelessness or nil phonation is the default.

[6:17] a type of phonation, well it's not real phonation, which is used during normal breathing it requires a more or less wide opening of the glottis So here you see the glottis resulting in glottal silence provided that the rate of transglottal airflow is below the level that would generate local turbulence of the glottis. normal voice or just voice. Thank you. refers to normal vocal cord vibration occurring along most of the length of the glottis the Vocal cords.

[6:54] vibrate. Whisper! You can all whisper, can't you? Well, whisper requires a far greater constriction than the voiceless setting of the glottis, and is generally achieved by adducting the vocal cords while maintaining an opening between retinoids the cartilages to which the vocal folds are attached. in breathy voice, so this is breathy voice.

[7:30] in breathy voice Normal vocal cord vibration is accompanied by some continuous turbulent airflow. Well, and creaky voice? this is some sort of creaky voice which you can do especially well early in the morning. Well, creaky voice or creak is a phonation mode characterized by a low frequency of vibration of the vocal cords with a very low opening quotient and often some irregularity in periodicity.

[8:07] And finally, Do you remember the Bee Gees? Something like that. They were pretty good at singing in falsetto. The phonation mode where the vocal cords are stretched longitudinally so that they become relatively thin in cross-section. Thus, falsetto is primarily heard as a phonatory setting in singing. Well...

[8:38] And what is happening next? Respiration? Phonation? Well, once the air passes through the trachea and the glottis, it enters a long tubular structure known as the vocal tract Here is the vocal tract again Let's enlarge it a little bit. Okay. Now this is the main component where we articulate speech sounds. In the vocal tract, the air stream is affected by the action of several mobile organs.

[9:11] the active articulators. the Active articulators are actively as the word says, involved in the production of speech sounds. The main active articulators are the lower lip actively involved in rounded vowels such as "u" or in consonants like "a fa" the tongue which is involved in the production of all vowels and most consonants, the glottis with which we produce Ah.

[9:47] And the uvula, which is actively involved in some consonants such as the so-called uvulatril "a" but which also remains passive in others such as "Aha!" This is why we represented the view of the uvula in a special color here. The active articulators are supported by a number of passive articulators which you can see on this screen These are specific organs or locations in the vocal tract which are involved in the production of speech sounds but do not move.

[10:29] Don't tell me that your teeth move, then it must be the third set of teeth. For example, just to pick one of them, the Alveolar Ridge, which is involved in consonants such as "ata" where the tongue touches the alveolar ridge, or assa, where friction noise is created between the tongue and the alveolar ridge. The production of speech sounds through all these organs, active and passive articulators is referred to as articulation.

[11:04] Well, This is it. you should now understand the basic mechanisms of speech production with its three stages Respiration phone nation and articulation By the way, before I finish, let me remind you that in the toolbox of the Virtual Linguistics Campus you have permanent free access to our e-lecture notes, which are produced on this active board behind me during the recording of such a video.

[11:40] All you need is a free VLC account. So join us and become a member of the Virtual Linguistics Campus community. Okay, that's it for now. See you again in one of our e-lectures on speech science and if you like on the Virtual Linguistics campus.

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