BREATHING BEHAVIOR   

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Symptoms and deficits, mediated by learned breathing behaviors that disturb basic acid-base chemistry, typically go “unexplained” or are mistakenly attributed to other unrelated causes, e.g., stress.  In this context of thinking, these effects become behavioral consequences, rather than unexplained clinical symptoms and performance deficits.  Most forms of breathing training, however, do not explicitly address the alignment of external with internal respiration, but rather focus on the mechanics of breathing, usually in the service of diminishing sympathetic arousal or changing states of consciousness, e.g., relaxation, meditation, yoga.  Unfortunately, however, it is usually implicitly assumed that the specific breathing mechanics embedded in these practices (e.g., breathing more deeply and more slowly) necessarily pave the way to optimal respiration.  This is a big mistake. 

 

Respiratory fitness is vital to health and performance, and must be regulated despite the breathing acrobatics of talking, emotional encounters, and professional challenges.  As a result of very specific learning, dictated by specific learning circumstances, breathing may “change on a dime” as a function of where (s)he is, who (s)he is with, and what (s)he may be doing, thinking, and feeling.  Respiratory fitness needs to be in place regardless of whether or not one is relaxed or stressed, excited or bored, active or inactive, working or playing, focused or distracted.  Good respiration requires neither relaxation nor a specific mechanical prescription, save one: the varied melodies of breathing mechanics must ultimately play the music of balanced chemistry” (Litchfield & Tsuda, 2006).  To insist on slow breathing and relaxation, for example, may be not only unrealistic, but may also be counterproductive.  

 

CapnoLearning is about the application of traditional learning theory to breathing behavior.  Applied behavioral analysis and behavior modification are thus central considerations.  Behavioral detective work is essential, which means pinpointing the history of learned breathing behavior along with the factors that may be sustaining it.  If overbreathing is a reinforced operant behavior, simply teaching clients the “right” mechanics may be both irrelevant and misleading.  Practicing “good” mechanics may mean nothing more than repetitive exercises that attest to one’s skills to consciously manipulate breathing behavior, which often may in itself be a problem.  If learning history is overlooked, training will fail.  The governing factors will continue to govern.

 

Basic learning considerations include classical conditioning, operant conditioning, two-factor learning, avoidance learning, state-dependent learning, cognitive learning, and biofeedback.  Operant conditioning includes concepts such as: operant response (e.g., breathing rapidly), positive reinforcement (e.g., feeling in control), negative reinforcement (e.g., fear reduction), and discriminative stimulus (e.g., sense of breathlessness).  Discriminative stimuli (SD) trigger operant behaviors based on reinforcement contingencies, e.g., “feeling challenged by an authority figure” may serve as an SD for accessory muscle (chest) breathing, an operant response positively reinforced by “feeling in control.”  Basic classical conditioning concepts, as applied to breathing behavior, include the (CS) conditioned stimulus (e.g., the experience of small breaths) and the (CR) conditioned response (e.g., fear), i.e., small breaths elicit fear.  Both kinds of learning may be state-dependent which means that they may only be triggered in specific states, e.g., when hypocapnic.  In fact, chronic hypocapnia may become the gateway into a different personality, a different sense of self, thus making it a form of “chemical” dependency.

 

Operant and classical conditioning invariably work together, and comprise what is known as two-factor learning. Classically conditioned responses provide both the motivation and reinforcement for the operant behaviors.   For example, classically conditioned fear of the transition time between breaths (a conditioned stimulus) provides motivation for aborting the exhale (an operant response), which is then reinforced by fear reduction (a negative reinforcement).  The transition time serves both as a conditioned stimulus AND as a discriminative stimulus.  These principles, as applied to breathing behavior, are illustrated in the case described below.

 

Litchfield, Peter M. and Tsuda, A.  Good breathing, bad breathing.  L’Esprit D’aujourdhui (2006); 8 (1), 47-57.  (In Japanese, long version in English)

 

 

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