Whats a squillo and why do opera singers need it Ming Luke

Gripped with vengeful passion,

The Queen of the Night
tears across the stage.

She begins to sing her titular aria,

one of the most famous sections
from Mozart’s beloved opera,

“The Magic Flute.”

The orchestra fills the hall with music,

but the queen’s voice soars above
the instruments.

Its melody rings out
across thousands of patrons,

reaching seats 40 meters away—

all without any assistance
from a microphone.

How is it possible that this single voice
can be heard so clearly,

above the strains
of dozens of instruments?

The answer lies in the physics
of the human voice,

and the carefully honed technique
of an expert opera singer.

All the music in this opera house
originates from the vibrations

created by instruments—

whether it’s the strings of a violin
or the vocal folds of a performer.

These vibrations send waves into the air,
which our brains interpret as sound.

The frequency of these vibrations––

specifically, the number
of waves per second––

is how our brains determine
the pitch of a single note.

But in fact, every note we hear

is actually a combination
of multiple vibrations.

Imagine a guitar string vibrating
at its lowest frequency.

This is called the fundamental,

and this low pitch is what our ears
mostly use to identify a note.

But this lowest vibration triggers
additional frequencies called overtones,

which layer on top of the fundamental.

These overtones break down
into specific frequencies

called harmonics, or partials—

and manipulating them
is how opera singers work their magic.

Every note has a set of frequencies
that comprise its harmonic series.

The first partial vibrates
at twice the frequency of the fundamental.

The next partial is three times
the fundamental’s frequency, and so on.

Virtually all acoustic instruments
produce harmonic series,

but each instrument’s shape and material
changes the balance of its harmonics.

For example, a flute emphasizes
the first few partials,

but in a clarinet’s lowest register,

the odd-numbered partials
resonate most strongly.

The strength of various partials

is part of what gives each instrument
its unique sonic signature.

It also affects an instrument’s ability
to stand out in a crowd,

because our ears are more strongly
attuned to some frequencies than others.

This is the key to an opera singer’s
power of projection.

An operatic soprano—

the highest of the four standard
voice parts—

can produce notes
with fundamental frequencies

ranging from 250 to 1,500 vibrations
per second.

Human ears are most sensitive
to frequencies

between 2,000 and 5,000
vibrations per second.

So if the singer can bring out
the partials in this range,

she can target a sensory sweet spot
where she’s most likely to be heard.

Higher partials are also advantageous

because there’s less competition
from the orchestra,

whose overtones are weaker
at those frequencies.

The result of emphasizing
these partials

is a distinctive ringing timbre
called a singer’s squillo.

Opera singers work for decades
to create their squillo.

They can produce higher frequencies

by modifying the shape and tension
in their vocal folds and vocal tract.

And by shifting the position
of their tongues and lips,

they accentuate some overtones
while dampening others.

Singers also increase their range
of partials with vibrato—

a musical effect in which a note
slightly oscillates in pitch.

This creates a fuller sound
that rings out

over the instruments’
comparatively narrow vibratos.

Once they have the right partials,

they employ other techniques
to boost their volume.

Singers expand their lung capacity
and perfect their posture

for consistent, controlled airflow.

The concert hall helps as well,

with rigid surfaces that reflect
sound waves towards the audience.

All singers take advantage
of these techniques,

but different vocal signatures
demand different physical preparation.

A Wagnerian singer needs
to build up stamina

to power through the composer’s
four-hour epics.

While bel canto singers require
versatile vocal folds

to vault through acrobatic arias.

Biology also sets some limits—

not every technique is feasible
for every set of muscles,

and voices change as singers age.

But whether in an opera hall
or a shower stall,

these techniques can turn
un-amplified voices

into thundering musical masterpieces.

怀着复仇的激情,

夜之女王
在舞台上流下了眼泪。

她开始唱她名义上的咏叹调,


是莫扎特心爱的歌剧

《魔笛》中最著名的部分之一。

管弦乐队在大厅里充满了音乐,

但女王的声音
在乐器之上翱翔。

它的旋律响彻
数千名顾客,

到达 40 米外的座位——

所有这些都没有
麦克风的帮助。

这一个声音怎么可能

在几十种乐器的音调之上听得如此清晰?

答案
在于人声的物理特性,

以及歌剧专家精心磨练的
技巧。

这座歌剧院的所有音乐都
源于乐器所产生的振动——

无论是小提琴的弦乐
还是表演者的声带。

这些振动将波发送到空气中
,我们的大脑将其解释为声音。

这些振动的频率——

特别是
每秒的波数——

是我们的大脑决定
单个音符的音高的方式。

但实际上,我们听到的每一个音符

实际上
都是多重振动的组合。

想象一根吉他弦
以最低频率振动。

这被称为

基音,这种低音是我们的耳朵
主要用来识别音符的。

但是这种最低振动会触发
称为泛音的额外频率,

该频率位于基频之上。

这些泛音分解
成特定的频率,

称为谐波或分音

——操纵
它们是歌剧歌手施展魔法的方式。

每个音符都有一组频率
,构成其谐波系列。

第一部分
以基波频率的两倍振动。

下一个分音是
基频的三倍,以此类推。

几乎所有原声乐器都会
产生谐波系列,

但每种乐器的形状和材料都会
改变其谐波的平衡。

例如,长笛
强调前几个分音,

但在单簧管的最低音域中

,奇数分音的
共鸣最为强烈。

各种分音的强度

是赋予每种乐器
独特的声音特征的一部分。

它还会影响乐器
在人群中脱颖而出的能力,

因为我们的耳朵
比其他频率更能适应某些频率。

这是歌剧演员
投射能力的关键。

歌剧

女高音——四个标准
声部中最高的一个——

可以产生
基本频率

范围为每秒 250 到 1,500 次振动的音符

人耳对每秒

2,000 到 5,000 次
振动的频率最为敏感。

因此,如果歌手可以带出
这个范围内的分音,

她就可以瞄准一个
最有可能被听到的感官甜蜜点。

较高的分音也是有利的,

因为来自管弦乐队的竞争较少

其泛音
在这些频率上较弱。

强调
这些分音的结果

是一种独特的振铃音色,
称为歌手的 squillo。

歌剧歌手工作了几十年
来创造他们的海啸。

他们可以

通过改变
声带和声道的形状和张力来产生更高的频率。

通过改变
舌头和嘴唇的位置,

他们可以突出一些泛音,
同时抑制其他泛音。

歌手还
通过颤音来增加他们的分音范围——

一种音符
在音高上轻微振荡的音乐效果。

这会产生更饱满的声音

在乐器
相对较窄的颤音上响起。

一旦他们有了正确的分音,

他们就会使用其他技术
来提高他们的音量。

歌手扩大他们的肺活量
并完善他们的姿势,

以获得一致、受控的气流。

音乐厅也有帮助,

其坚硬的表面可以将
声波反射给观众。

所有歌手都
利用这些技巧,

但不同的声乐特征
需要不同的身体准备。

瓦格纳歌手需要

通过作曲家的
四小时史诗来增强耐力。

而美声唱法歌手则需要
多才多艺的声带

才能通过杂技咏叹调。

生物学也设定了一些限制——

并非每一种技术都
适用于每一组肌肉,

而且随着歌手年龄的增长,声音也会发生变化。

但无论是在歌剧院
还是淋浴间,

这些技巧都可以将
未经放大的声音

变成雷鸣般的音乐杰作。