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Volume 33 Number 3 June 2006 - International Clarinet Association

Volume 33 Number 3 June 2006 - International Clarinet Association

Volume 33 Number 3 June 2006 - International Clarinet Association

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Readers of the previous issues of<br />

The <strong>Clarinet</strong> know that this is the<br />

15th part of a series of articles<br />

based on materials from which Keith Stein<br />

(Professor of <strong>Clarinet</strong> at Michigan State<br />

Uni versity from 1934 to 1975) planned to<br />

create a how-to book for those who had no<br />

access to a clarinet teacher. I have attempted<br />

to put those materials into prose form,<br />

and a little fuller explanation of the circumstances<br />

surrounding that endeavor is<br />

given in Part One in the <strong>Volume</strong> 29, No. 4<br />

(September 2002) issue of the magazine.<br />

This article opens our look at Stein’s<br />

materials dealing with the great subject of<br />

clarinet tone quality. This is yet another<br />

aspect of clarinet playing in which Keith<br />

Stein was a great master.<br />

* * * * *<br />

Roughly speaking, tone is generated by<br />

means of a balanced control of air-flow,<br />

correct support and an appropriate ar rangement<br />

of larynx, jaw, tongue and the shaping<br />

of the front portion of the mouth. The<br />

last-mentioned may loosely be termed<br />

“Ton al Voicing.”<br />

“The primary purpose of the air stream,”<br />

says my colleague Larry Teal, “is to set<br />

the reed in vibration.” A player feels he is<br />

blowing directly through the clarinet when<br />

playing well, yet there is actually little forward<br />

force of the air beyond the reed. Mr.<br />

Teal’s convincing demonstration on saxophone<br />

applies equally on clarinet to dem -<br />

onstrate that breath transforms reed vibrations<br />

into sound waves, setting up a nearly<br />

ethereal vacancy inside the clarinet tube.<br />

To demonstrate this phenomenon, first<br />

put a reedless mouthpiece into the top of<br />

the barreljoint of your clarinet. Then cut a<br />

one-and-a-half-inch square piece of paper.<br />

Next, sit in a chair and tip your head back<br />

until your face is on a level plane looking<br />

directly upward at the ceiling. Insert the<br />

reedless mouthpiece and barrel combination<br />

in your mouth with the piece of paper<br />

sitting on the upturned, open end of the<br />

barreljoint. Observe that the slightest puff<br />

of air will send the piece of paper floating<br />

to the floor. But now do this same experiment<br />

again, this time with a reed and ligature<br />

attached to the mouthpiece. Apply as<br />

much blowing pressure as possible, and<br />

you will note that the harder you blow, the<br />

more the paper adheres to the end of the<br />

barrel. The first question asked is where<br />

does the air go Observe that some air does<br />

Page 32<br />

escape from around the vibrating piece of<br />

paper, perhaps the needed amount to satisfy<br />

bodily needs in expiration and at the<br />

same time sufficient to stimulate the reed<br />

in playing.<br />

It is correct for players to sense a wellfilled<br />

tone as an integral part of good clarinet<br />

sound though the previous experiment<br />

proves that air does not actually pack the<br />

clarinet tube. The experiment substantiates<br />

that a relatively small amount of breath is<br />

needed to vibrate the reed at its maximum.<br />

Nevertheless, continue encouraging the stu -<br />

dent to fill the instrument as a teaching<br />

measure, but help him find that balance of<br />

breath and support that will offer him the<br />

same sensation instead of merely overloading<br />

the wind channel with air. Proper mixing<br />

of breath with support is similar to a<br />

balancing of air with gasoline in a carburetor.<br />

When that is correct, clarinet sound<br />

speaks efficiently and with little effort as<br />

does an automobile motor with air and<br />

gasoline correctly mixed.<br />

SUPPORT<br />

by David Pino<br />

A key to tone production with minimal<br />

effort lies in learning to generate the support<br />

from an exact location which some<br />

professionals feel sufficiently important<br />

to call it the center of tone. Location of<br />

this so-called tonal center, at the extreme<br />

lower groinal area, is quickly sensed by<br />

the player when each new air-load seems<br />

to impact into this terminal of the ab do -<br />

men, provided that he is sufficiently re -<br />

laxed for it to take place. A sudden distension<br />

is felt, caused by the lung sacs filling<br />

and pressing downward, in turn displacing<br />

the lower internal organs and the surround -<br />

ing muscularity until the chain reaction<br />

reaches the groinal depths. This accounts<br />

for the impossible statement some players<br />

make that they blow breath from this ex -<br />

tremely low location. Stated more accurately,<br />

muscular support is applied to the<br />

breath-line from the lower abdomen,<br />

THE CLARINET<br />

where as more delicate breathing controls<br />

are manipulated by the diaphragm and<br />

upper abdominal musculature.<br />

Learning to gather the musculature<br />

around the extreme lower back (sacroiliac)<br />

as prescribed earlier also helps pinpoint<br />

the depth from which the lower front -<br />

al abdomen applies support. To the degree<br />

that support is not fully applied to the<br />

breath, the embouchure must make up the<br />

difference with double duty, a reason why<br />

embouchures are often declared faulty and<br />

blamed for a poor result.<br />

Conversely, exhalation takes place from<br />

this groinal region by a reverse chain reaction<br />

of each distended component. Each<br />

presses upward against the other until the<br />

diaphragm and the immediately surrounding<br />

musculature make contact against the<br />

lung sacs to expel the air with proper drive.<br />

Muscular contraction may be applied also<br />

from this upper area provided it is gentle<br />

and does not cause tensing up.<br />

Players will notice improvement in tone<br />

quality when attention is concentrated upon<br />

full continuous support of the breath. Take<br />

time, in practice, to apply support fully with<br />

each new breath intake. Under the stress of<br />

performance, especially when only a fraction<br />

of a beat is allowed for breath intake<br />

and support application, it becomes a habit<br />

for the player to continue with only partial<br />

support applied. Take the time to renew<br />

full support often.<br />

VOICING THE TONE<br />

There is another location where tone is<br />

basically determined, and that is at the ex -<br />

treme front of the mouth where tonal characteristics<br />

are created through reshaping,<br />

rerouting and realigning the breath. This<br />

takes place in a flash at that point just prior<br />

to the air impacting against the reed. “Ton -<br />

al voicing” is a general term embracing<br />

this extreme frontal breath treatment. The<br />

larynx, throat, jaw, tongue, sinus and nasal<br />

areas also figure in tonal formation but

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