User:Fredricshaffer/originsandbox

From Wikipedia, the free encyclopedia

Early Antecedents of Biofeedback[edit]

Before the term biofeedback was popularized in 1969, contributors repeatedly demonstrated this learning process without understanding its implications and wider application. Until the Bio-Feedback Research Society's founding in 1969, professionals largely worked in isolation. They were unaware of others' work and unable to draw connections between findings in areas as different as operant conditioning and EEG training.

Bell, Tarchanoff and Bair really pioneered contemporary study of self-regulation. Alexander Graham Bell studied teaching the deaf to speak using biofeedback. He investigated Leon Scott's phonautograph, which translated sound vibrations into tracings on smoked glass to show their acoustic waveforms. Bell also examined Koenig's manometric flame, which displayed sounds as patterns of light.[1]

Tarchanoff showed that voluntary control of heart rate could be fairly direct (cortical-autonomic) and did not depend on "cheating" by altering breathing rate.[2]

Bair studied voluntary control of the retrahens muscle that wiggles the ear. He found that subjects learned this skill by inhibiting interfering muscles. This was a solid demonstration of skeletal muscle self-regulation.[3]

Wiener developed cybernetic theory that proposed that systems are controlled by monitoring their results. The participants at the landmark 1969 conference at the Surfrider Inn in Santa Monica coined the term biofeedback from Weiner's feedback.[4]

Thorndike advanced the term instrumental learning to describe voluntary responses that obtain a desired outcome. His law of effect proposed that successful responses are mechanically stamped in by their successful consequences.[5]

Skinner pioneered operant conditioning research that expanded on Thorndike's law of effect. Based on extensive laboratory findings, he argued that animals repeat responses followed by favorable consequences. Researchers who applied Skinner's work to biofeedback used operant theory to decide which responses could be voluntarily controlled and which could not. Scientists like Kimble concluded that while subjects could learn to consciously control skeletal muscle responses, autonomic processes (like heart rate) were involuntary, could only be classically conditioned, and were forever outside of conscious control.[6]

Studies Demonstrating Voluntary Autonomic Control[edit]

The belief that only skeletal muscles could be voluntarily controlled ignored Indian yogis' practice of autonomic control for over 5000 years. It also ignored research by Lapides, Sweet, and Lewis; Lisina; Kimmel; and Miller and DiCara that demonstrated voluntary control of autonomic responses. Ironically, Skinner observed in 1938 that performers can learn to cry (an autonomic response) on cue.

Lapides, Sweet, and Lewis temporarily paralyzed male subjects and trained them to stop urination twice as fast as normal using only (autonomically-controlled) smooth muscle.[7]

Lisina combined classical and operant conditioning to train subjects to change blood vessel diameter. She elicited reflexive blood flow changes and then displayed the changes in their blood flow to teach them voluntary temperature control.[8]

Kimmel operantly trained subjects to sweat using the galvanic skin response.[9]

Miller and DiCara operantly conditioned heart rate, blood pressure, kidney blood flow, skin blood flow, and intestinal contraction in both paralyzed and unparalyzed rats. Curare was used to paralyze rats to prevent cheating by changing their breathing pattern. The reinforcer was electrical stimulation to the medial forebrain bundle. Their demonstration that both paralyzed and unparalyzed rats could learn to produce these autonomic changes gave biofeedback scientific credibility and led to Federal NIMH funding for biofeedback research.[10] Controversy clouded the paralyzed rat studies. While the unparalyzed rat findings have held up, attempts to replicate (reproduce) the curare findings have yielded progressively smaller autonomic changes. Explanations for this include changes in the curare and genetic rat strain, and tightening of the experimental design.[11]

Divergent Movements in Biofeedback[edit]

Incontinence[edit]

Mowrer detailed the use of a bedwetting alarm that sounds when children urinate while asleep. This simple biofeedback device can quickly teach children to wake up when their bladders are full, and to contract the urinary sphincter and relax the detrusor muscle, preventing further urine release. Through classical conditioning, sensory feedback from a full bladder replaces the alarm and allows children to continue sleeping without urinating.[12]

Kegel developed the perineometer in 1947 to treat urinary incontinence (urine leakage) in women whose pelvic floor muscles are weakened during pregnancy and childbirth. The perineometer, which is inserted into the vagina to monitor pelvic floor muscle contraction, satisfies all the requirements of a biofeedback device and enhances the effectiveness of popular Kegel exercises.[13]

In 1992, the United States Agency for Health Care Policy and Research recommended biofeedback as a first-line treatment for adult urinary incontinence.

EEG Research[edit]

Caton recorded spontaneous electrical potentials from the exposed cortical surface of monkeys and rabbits, and was the first to measure event-related potentials (EEG responses to stimuli) in 1875.[14]

Danilevsky published Investigations in the physiology of the brain, which explored the relationship between the EEG and states of consciousness in 1877.[15]

Beck published studies of spontaneous electrical potentials detected from the brains of dogs and rabbits, and was the first to document alpha blocking, where light alters rhythmic oscillations, in 1890.[16]

Sherrington introduced the terms, neuron and synapse, and published the Integrative Action of the Nervous System in 1906.[17]

Pravdich-Neminsky photographed the EEG and event related potentials from dogs, demonstrated a 12-14 Hz rhythm that slowed during asphyxiation, and introduced the term, electrocerebrogram, in 1912.[18]

Forbes reported the replacement of the string galvanometer with a vacuum tube to amplify the EEG in 1920. The vacuum tube became the de facto standard by 1936.[19]

Berger (1924) published the first human EEG data. He recorded electrical potentials from his son Klaus's scalp. He viewed the EEG as analogous to the ECG and introduced the term, elektenkephalogram. He believed that the EEG had diagnostic and therapeutic promise in measuring the impact of clinical interventions. Berger showed that these potentials were not due to scalp muscle contractions. He first identified the alpha rhythm, which he called the Berger rhythm, and later identified the beta rhythm and sleep spindles. He demonstrated that alterations in consciousness are associated with changes in the EEG and associated the beta rhythm with alertness. He described interictal activity (EEG potentials between seizures) and recorded a partial complex seizure in 1933. Finally, he performed the first QEEG, which is the measurement of the signal strength of EEG frequencies.[20]

Adrian and Matthews confirmed Berger's findings in 1934 by recording their own EEGs using a cathode-ray oscilloscope. Their demonstration of EEG recording at the 1935 Physiological Society meetings in England caused its widespread acceptance. Adrian used himself as a subject and demonstrated the phenomenon of alpha blocking, where opening his eyes suppressed alpha rhythms.[21]

Gibbs, Davis, and Lennox inaugurated clinical electroencephalography in 1935 by identifying abnormal EEG rhythms associated with epilepsy, including interictal spike waves and 3-Hz activity in absence seizures.[22]

Bremer used the EEG to show how sensory signals affect vigilance in 1935.[23]

Walter (1937, 1953) named the delta waves and theta waves, and the contingent negative variation (CNV), a slow cortical potential that may reflect expectancy, motivation, intention to act, or attention. He located an occipital lobe source for alpha waves and demonstrated that delta waves can help locate brain lesions like tumors. He improved Berger's electroencephalograph and pioneered EEG topography.[24]

Kleitman has been recognized as the "Father of American sleep research" for his seminal work in the regulation of sleep-wake cycles, circadian rhythms, the sleep patterns of different age groups, and the effects of sleep deprivation. He discovered the phenomenon of rapid eye movement (REM) sleep with his graduate student Aserinsky in 1953.[25]

Dement, another of Kleitman's students, described the EEG architecture and phenomenology of sleep stages and the transitions between them in 1955, associated REM sleep with dreaming in 1957, and documented sleep cycles in another species, cats, in 1958, which stimulated basic sleep research. He established the Stanford University Sleep Research Center in 1970.[26]

Andersen and Andersson (1968) proposed that thalamic pacemakers project synchronous alpha rhythms to the cortex via thalamocortical circuits.[27]

Kamiya (1968) demonstrated that the alpha rhythm in humans could be operantly conditioned. He published an influential article in Psychology Today that summarized research that showed that subjects could learn to discriminate when alpha was present or absent, and that they could use feedback to shift the dominant alpha frequency about 1 Hz. Almost half of his subjects reported experiencing a pleasant "alpha state" characterized as an "alert calmness." These reports may have contributed to the perception of alpha biofeedback as a shortcut to a meditative state. He also studied the EEG correlates of meditative states.[28]

Brown (1970) demonstrated the clinical use of alpha-theta biofeedback. In research designed to identify the subjective states associated with EEG rhythms, she trained subjects to increase the abundance of alpha, beta, and theta activity using visual feedback and recorded their subjective experiences when the amplitude of these frequency bands increased. She also helped popularize biofeedback by publishing a series of books, including New Mind, New body (1974) and Stress and the Art of biofeedback (1977).[29][30][31]

Mulholland and Peper (1971) showed that occipital alpha increases with eyes open and not focused, and is disrupted by visual focusing; a rediscovery of alpha blocking.[32]

Green and Green (1986) investigated voluntary control of internal states by individuals like Swami Rama and American Indian medicine man Rolling Thunder both in India and at the Menninger Foundation. They brought portable biofeedback equipment to India and monitored practitioners as they demonstrated self-regulation. A film containing footage from their investigations was released as Biofeedback: The Yoga of the West (1974). They developed alpha-theta training at the Menninger Foundation from the 1960s to the 1990s. They hypothesized that theta states allow access to unconscious memories and increase the impact of prepared images or suggestions. Their alpha-theta research fostered Peniston's development of an alpha-theta addiction protocol.[33]

Sterman (1972) showed that cats and human subjects could be operantly trained to increase the amplitude of the sensorimotor rhythm (SMR) recorded from the sensorimotor cortex. He demonstrated that SMR production protects cats against drug-induced generalized seizures (tonic-clonic seizures involving loss of consciousness) and reduces the frequency of seizures in humans diagnosed with epilepsy. He found that his SMR protocol, which uses visual and auditory EEG biofeedback, normalizes their EEGs (SMR increases while theta and beta decrease toward normal values) even during sleep. Sterman also co-developed the Sterman-Kaiser (SKIL) QEEG database.[34]

Birbaumer and colleagues (1981) have studied feedback of slow cortical potentials since the late 1970s. They have demonstrated that subjects can learn to control these DC potentials and have studied the efficacy of slow cortical potential biofeedback in treating ADHD, epilepsy, migraine, and schizophrenia.[35]

Lubar (1989) studied SMR biofeedback to treat attention disorders and epilepsy in collaboration with Sterman. He demonstrated that SMR training can improve attention and academic performance in children diagnosed with Attention Deficit Disorder with Hyperactivity (ADHD). He documented the importance of theta-to-beta ratios in ADHD and developed theta suppression-beta enhancement protocols to decrease these ratios and improve student performance.[36]

Electrodermal Research[edit]

Feré demonstrated the exosomatic method of recording of skin electrical activity by passing a small current through the skin in 1888.[37]

Tarchanoff used the endosomatic method by recording the difference in skin electrical potential from points on the skin surface in 1889; no external current was applied.[38]

Jung employed the galvanometer, which used the exosomatic method, in 1907 to study unconscious emotions in word-association experiments.[39]

Marjorie and Hershel Toomim (1975) published a landmark article about the use of GSR biofeedback in psychotherapy.[40]

EMG Research[edit]

Jacobson (1930) developed hardware to measure EMG voltages over time, showed that cognitive activity (like imagery) affects EMG levels, introduced the deep relaxation method, Progressive Relaxation, and wrote Progressive relaxation (1929) and You must relax (1934). He prescribed daily Progressive Relaxation practice to treat diverse psychophysiological disorders like hypertension.[41]

Several researchers showed that human subjects could learn precise control of individual motor units (motor neurons and the muscle fibers they control). Lindsley (1935) found that relaxed subjects could suppress motor unit firing without biofeedback training.[42]

Harrison and Mortensen (1962) trained subjects using visual and auditory EMG biofeedback to control individual motor units in the tibialis anterior muscle of the leg.[43]

Basmajian (1963) instructed subjects using unfiltered auditory EMG biofeedback to control separate motor units in the abductor pollicis muscle of the thumb in his Single Motor Unit Training (SMUT) studies. His best subjects coordinated several motor units to produce drum rolls. Basmajian demonstrated practical applications for neuromuscular rehabilitation, pain management, and headache treatment.[44]

Marinacci (1960) applied EMG biofeedback to neuromuscular disorders (where proprioception is disrupted) including Bell Palsy (one-sided facial paralysis),polio, and stroke.[45]

Whatmore and Kohli (1968) introduced the concept of dysponesis (misplaced effort) to explain how functional disorders (where body activity is disturbed) develop. Bracing your shoulders when you hear a loud sound illustrates dysponesis since this action does not protect against injury.[46] These clinicians applied EMG biofeedback to diverse functional problems like headache and hypertension. They reported case follow-ups ranging from 6-21 years. This was long compared with typical 0-24 month follow-ups in the clinical literature. Their data showed that skill in controlling misplaced efforts was positively related to clinical improvement. Last, they wrote The Pathophysiology and Treatment of Functional Disorders (1974) that outlined their treatment of functional disorders.[47]

Wolf (1983) integrated EMG biofeedback into physical therapy to treat stroke patients and conducted landmark stroke outcome studies.[48]

Peper (1997) applied SEMG to the workplace, studied the ergonomics of computer use, and promoted "healthy computing." [49]

Taub (1999, 2006) demonstrated the clinical efficacy of constraint-induced movement therapy for the treatment of spinal cord-injured and stroke patients.[50][51]

Cardiovascular Research[edit]

Shearn (1962) operantly trained human subjects to increase their heart rates by 5 beats-per-minute to avoid electric shock.[52] In contrast to Shearn's slight heart rate increases, Swami Rama used yoga to produce atrial flutter at an average 306 beats-per-minute before a Menninger Foundation audience. This briefly stopped his heart's pumping of blood and silenced his pulse.[53]

Engel and Chism (1967) operantly trained subjects to decrease, increase, and then decrease their heart rates (this was analogous to ON-OFF-ON EEG training). He then used this approach to teach patients to control their rate of premature ventricular contractions (PVCs), where the ventricles contract too soon. Engel conceptualized this training protocol as illness onset training, since patients were taught to produce and then suppress a symptom.[54] Peper has similarly taught asthmatics to wheeze to better control their breathing.[55]

Schwartz (1971, 1972) examined whether specific patterns of cardiovascular activity are easier to learn than others due to biological constraints. He examined the constraints on learning integrated (two autonomic responses change in the same direction) and differentiated (two autonomic responses change inversely) patterns of blood pressure and heart rate change.[56]

Schultz and Luthe (1969) developed Autogenic Training, which is a deep relaxation exercise derived from hypnosis. This procedure combines passive volition with imagery in a series of three treatment procedures (standard Autogenic exercises, Autogenic neutralization, and Autogenic meditation). Clinicians at the Menninger Foundation coupled an abbreviated list of standard exercises with thermal biofeedback to create autogenic biofeedback.[57] Luthe (1973) also published a series of six volumes titled Autogenic therapy.[58]

Fahrion and colleagues (1986) reported on an 18-26 session treatment program for hypertensive patients. The Menninger program combined breathing modification, autogenic biofeedback for the hands and feet, and frontal EMG training. The authors reported that 89% of their medication patients discontinued or reduced medication by one-half while significantly lowering blood pressure. While this study did not include a double-blind control, the outcome rate was impressive.[59]

Freedman and colleagues (1991) demonstrated that hand-warming and hand-cooling are produced by different mechanisms. The primary hand-warming mechanism is beta-adrenergic (hormonal), while the main hand-cooling mechanism is alpha-adrenergic and involves sympathetic C-fibers. This contradicts the traditional view that finger blood flow is exclusively controlled by sympathetic C-fibers. The traditional model asserts that when firing is slow, hands warm; when firing is rapid, hands cool. Freedman and colleagues’ studies support the view that hand-warming and hand-cooling represent entirely different skills.[60]

Vaschillo and colleagues (1983) published the first studies of HRV biofeedback with cosmonauts and treated patients diagnosed with psychiatric and psychophysiological disorders.[61][62] Lehrer collaborated with Smetankin and Potapova in treating pediatric asthma patients [63] and published influential articles on HRV asthma treatment in the medical journal Chest.[64]

Pain Research[edit]

Budzynski and Stoyva (1969) showed that EMG biofeedback could reduce frontalis muscle (forehead) contraction. [65] They demonstrated in 1973 that analog (proportional) and binary (ON or OFF) visual EMG biofeedback were equally helpful in lowering masseter SEMG levels.[66]

Budzynski, Stoyva, Adler, and Mullaney (1973) reported that auditory frontalis EMG biofeedback combined with home relaxation practice lowered tension headache frequency and frontalis EMG levels. A control group that received noncontingent (false) auditory feedback did not improve. This study helped make the frontalis muscle the placement-of-choice in EMG assessment and treatment of headache and other psychophysiological disorders.[67]

Sargent, Green, and Walters (1972, 1973) demonstrated that hand-warming could abort migraines and that autogenic biofeedback training could reduce headache activity. The early Menninger migraine studies, although methodologically weak (no pretreatment baselines, control groups, or random assignment to conditions), strongly influenced migraine treatment.[68][69]

Flor (2002) trained amputees to detect the location and frequency of shocks delivered to their stumps, which resulted in an expansion of corresponding cortical regions and significant reduction of their phantom limb pain.[70]

McNulty, Gevirtz, Hubbard and Berkoff (1994) proposed that sympathetic nervous system innervation of muscle spindles underlies trigger points.[71]

Biofeedback Timeline[edit]

1968 - Annual Veteran's Administration research meeting in Denver that brought together several biofeedback researchers

1969 - Conference on Altered States of Consciousness in Council Grove, Kansas in April and first meeting of the Bio-Feedback Research Society (BRS) at the Surfrider Inn in Santa Monica in October

1975 - American Association of Biofeedback Clinicians was founded

1976 - BRS was renamed the Biofeedback Society of America (BSA)

1980 - Biofeedback Certification Institute of America (BCIA) offered the first national certification examination in biofeedback

1989 - BSA was renamed the Association for Applied Psychophysiology and Biofeedback

1991 - BCIA offered first national certification examination in stress management

1994 - Brain Wave and EMG sections were established within AAPB

1995 - Society for the Study of Neuronal Regulation (SSNR) was founded

1996 - Biofeedback Foundation of Europe (BFE) was established

1999 - SSNR was renamed the Society for Neuronal Regulation (SNR)

2002 - SNR was renamed the International Society for Neuronal Regulation (iSNR)

2006 - ISNR was renamed the International Society for Neurofeedback & Research (ISNR)

2008 - Biofeedback Neurofeedback Alliance was formed to pool the resources of the AAPB, BCIA, and ISNR on joint initiatives

2008 - Biofeedback Alliance and Nomenclature Task Force defined biofeedback

2009 - the International Society for Neurofeedback & Research defined neurofeedback[72]

  1. ^ Bruce, R. V. (1973). Bell: Alexander Graham Bell and the conquest of solitude. London: Gollancz.
  2. ^ <Tarchanoff, J. R. (1885). Voluntary acceleration of the heart beat in man. Pfluger's Archive der gesamten Physiologie, 35, 109-135.
  3. ^ Bair, J. H. (1901). Development of voluntary control. Psychological Review, 8, 474-510.
  4. ^ Wiener, N. (1948). Cybernetics: Or control and communication in the animal and the machine. Cambridge, MA: MIT Press.
  5. ^ Thorndike, E. (1911). Animal intelligence: Experimental studies. New York: The Macmillan Company.
  6. ^ Skinner, B. F. (1938). The behavior of organisms: An experimental analysis. New York: Appleton-Century.
  7. ^ Lapides, J., Sweet, R. B., & Lewis, L. W. (1957). Role of striated muscle in urination. Journal of Urology, 77, 247-250.
  8. ^ Lisina, M. I. (1965). The role of orientation in the transformation of involuntary reactions into voluntary ones. In I. G. Voronin, A. N. Leontiev, A. R. Luria, E. N. Sokolov, & O. B. Vinogradova (Eds.). Orienting reflex and exploratory behavior. Washington, DC: American Institute of Biological Studies.
  9. ^ Kimmel, H. D. (1974). Instrumental conditioning of autonomically mediated responses in human beings. American Psychologist, 29, 325-335.
  10. ^ Miller, N. E. (1969). Learning of visceral and glandular responses. Science, 163, 434-445.
  11. ^ Miller, N. E., & Dworkin, B. (1974). Visceral learning: Recent difficulties with curarized rats and significant problems for human research. In P. A. Obrist; A. H. Black, J. Brener, & L. V. DiCara (Ed.), Cardiovascular psychophysiology (pp. 312-331). NY: Aldine.
  12. ^ Mowrer, O. H. (1960). Learning theory and behavior. New York: Wiley.
  13. ^ Perry, J. D., & Talcott, L. B.(1989). The Kegel Perineometer: Biofeedback Twenty Years Before Its Time. A "Special Historical Paper". Proceedings of the 20th Annual Meeting of the Association for Applied Psychophysiology and Biofeedback, San Diego, CA, 169-172.
  14. ^ Caton, R. (1875). The electric currents of the brain. British Medical Journal, 2, 278.
  15. ^ Brazier, M. A. B. (1959). The EEG in epilepsy: A historical note. Epilepsia, 1(1-5), 328-336.
  16. ^ Coenen, A. M. L., Zajachkivsky, O., & Bilski, R. (1998). Scientific priority of A. Beck in the neurophysiology. Experimental and Clinical Physiology and Biochemistry, 1, 105-109.
  17. ^ Sherrington, C. S. (1906). The integrative action of the nervous system. New Haven, CT: Yale University Press.
  18. ^ Pravdich-Neminsky, V. V. (1913). Ein versuch der registrierung der elektrischen gehirnerscheinungen. Zbl Physiol 27, 951–960.
  19. ^ Forbes, A., & Mann, D. W. (1924). A revolving mirror for use with the string galvanometer. J. Opt. Soc. Am. and Rev. Sci. Instr., 8, 807-816.
  20. ^ Berger, H. (1920). Ueber das elektroenkephalogramm des menschen. Archiv für Psychiatrie und Nervenkrankheiten, 87, 527-570.
  21. ^ Adrian, E. D., & Mathews, B. H. C. (1934). The Berger rhythm. Brain, 57, 355-385.
  22. ^ Brazier, M. A. B. (1959). The EEG in epilepsy: A historical note. Epilepsia, 1(1-5), 328-336.
  23. ^ Bremer, F. (1935). Cerveau isole et physiologie du sommeil. Com. Ren. Soc. Bio., (Paris), 118, 1235-1241.
  24. ^ Bladin, P. F. (2006). W. Grey Walter, pioneer in the electroencephalogram, robotics, cybernetics, artificial intelligence. Journal of Clinical Neuroscience, 13(2), 170-177.
  25. ^ Kleitman, N. (1960). Patterns of dreaming. Scientific American, 203(5), 82-88.
  26. ^ Dement, W. (2000). The promise of Sleep: A pioneer in sleep medicine explores the vital connection between health, happiness, and a good night’s sleep. New York: Random House.
  27. ^ Andersen, P., & Andersson, S. (1968). A physiological basis of the alpha rhythm. New York: Appleton-Century-Crofts.
  28. ^ Kamiya, J. (1969). Operant control of the EEG alpha rhythm. In C. Tart (Ed.), Altered states of consciousness. NY: Wiley.
  29. ^ Brown, B. (1974). New mind, new body. New York: Harper & Row.
  30. ^ Brown, B. (1977). Stress and the art of biofeedback. New York: Harper & Row.
  31. ^ Brown, B. (1980). Supermind: The ultimate energy. New York: Harper & Row.
  32. ^ Mulholland, T., & Peper, E. (1971). Occipital alpha and accommodative vergence, pursuit tracking, and fast eye movements. Psychophysiology, 8, 556-575.
  33. ^ Green, E., & Green, A. (1977). Beyond biofeedback. San Francisco: Delacorte Press.
  34. ^ Sterman, M. B. (1973). Neurophysiologic and clinical studies of sensorimotor EEG biofeedback training: Some effects on epilepsy. Seminars in Psychiatry, 5, 507-524.
  35. ^ Birbaumer, N., Elbert, T., Lutzenberger, W., Rockstroh, B.,& Schwarz, J. (1981). EEG and slow cortical potentials in anticipation of mental tasks with different hemispheric involvement. Biol Psychol, 13, 251–260.
  36. ^ Lubar, J. F. (1989). Electroencephalographic biofeedback and neurological applications. In J. V. Basmajian (Ed.), Biofeedback: Principles and practice for clinicians (3rd ed.), pp. 67-90. Baltimore: Williams and Wilkins.
  37. ^ Fere, C., Note sur les modifications de la tension e1ectrique dans le corps human, Compt. rend. Soc. biol., 5, 23.
  38. ^ Tarchanoff, J. (1890). Uber die galvanischen Erscheinungen an der Haut des Menschen bei Relzung der Sinnesorgane und bei verschiedenen Formen der psychischen Tatigkeit. Arch. ges. Physiol., 46, 46.
  39. ^ Peterson, F., & Jung, C. G. (1907). Psycho-physical investigations with the galvanometer and pneumograph in normal and insane individuals. Brain, 30, 153-218.
  40. ^ Toomim, M., & Toomim, H. (1975, Spring). GSR biofeedback in psychotherapy: Some clinical observations. Psychotherapy: Theory, Research, and Practice, 12(1), 33-38.
  41. ^ Jacobson, E. (1938). Progressive relaxation. Chicago: University of Chicago Press.
  42. ^ Lindsley, D. B. (1935). Characteristics of single motor unit responses in human muscle during various degrees of contraction. American Journal of Physiology, 113, 88-89.
  43. ^ Harrison, V. F., & Mortenson, O. A. (1962) Identification and voluntary control of single motor unit activity in the tibialis anterior muscle. Anatomical Record, 144, 109-116.
  44. ^ Basmajian, J. V. (1967). Muscles alive: Their functions revealed by electromyography. Baltimore: Williams and Wilkins.
  45. ^ Marinacci, A. A. (1960). Lower motor neuron disorders superimposed on the residuals of poliomyelitis. Value of the electromyogram in differential diagnosis. Bulletin of the Los Angeles Neurological Society, 25, 18.
  46. ^ Whatmore, G., & Kohli, D. (1968). Dysponesis: A neuropsychologic factor in functional disorders. Behavioral Science, 13, 102-124.
  47. ^ Whatmore, G., & Kohli, D. (1974). The physiopathology and treatment of functional disorders. New York: Grune & Stratton.
  48. ^ Wolf, S. L. (1983). Electromyographic biofeedback applications to stroke patients. A critical review. Phys Ther, 63(9), 1448–1459.
  49. ^ Shumay, D. and Peper, E. (1997). Healthy computing: A comprehensive group training approach using biofeedback. In G. Salvendy, M. J. Smith, & R. J. Koubek (Eds). Design of computing systems: Cognitive considerations. New York: Elsevier.
  50. ^ Taub, E., Uswatte, G., Pidikiti, R. (1999). Constraint-Induced Movement therapy: A new family of techniques with broad application to physical rehabilitation—A clinic review. Journal of Rehabilitation Research and Development, 36, 237-251.
  51. ^ Taub, E., Uswatte, G., King, D. K., Morris, D., Crago, J., & Chatterjee, A. (2006). A placebo controlled trial of Constraint-Induced Movement therapy for upper extremity after stroke. Stroke, 37, 1045-1049.
  52. ^ Shearn, D. W. (1962). Operant conditioning of heart rate. Science, 137, 530-531.
  53. ^ Green, E., & Green, A. (1977). Beyond biofeedback. San Francisco: Delacorte Press.
  54. ^ Engel, B. J., & Chism, R. A. (1967). Operant conditioning of heart rate speeding. Psychophysiology, 3, 418-426.
  55. ^ E. Peper, S. Ancoli, & M. Quinn (Eds.). (1979). Mind/Body integration: Essential readings in biofeedback. New York: Plenum Press.
  56. ^ Schwartz, G. E. (1971). Learned control of cardiovascular integration in man. Psychosomatic Medicine, 33, 57-62.
  57. ^ Schultz, J. H., & Luthe, W. (1969). Autogenic therapy: Autogenic methods. New York: Grune & Stratton.
  58. ^ Luthe, W. (1973). Autogenic therapy: Treatment with autogenic neutralization. New York: Grune & Stratton.
  59. ^ Fahrion, S., Norris, P., Green, A., Green, E., et al. (1986). Biobehavioral treatment of essential hypertension: A group outcome study. Biofeedback-and-Self-Regulation, 11(4) , 257-277.
  60. ^ Freedman, R. R., Keegan, D., Migaly, P., Galloway, M. P., & Mayes, M. (1991). Plasma catecholamines during behavioral treatments for Raynaud's Disease. Psychosomatic Medicine, 53, 433-439.
  61. ^ Vaschillo, E. G., Zingerman, A. M., Konstantinov, M. A., & Menitsky, D. N. (1983). Research of the resonance characteristics for the cardiovascular system. Human Physiology, 9, 257-265.
  62. ^ Chernigovskaya, N. V., Vaschillo, E. G., Petrash, V. V., & Rusanovsky, V. V. (1990). Voluntary regulation of the heart rate as a method of functioning condition correction in neurotics. Human Physiology, 16, 58-64.
  63. ^ Lehrer, P. M., Smetankin, A., & Potapova, T. (2000). Respiratory sinus arrhythmia biofeedback therapy for asthma: A report of 20 unmedicated pediatric cases using the Smetankin method. Applied Psychophysiology and Biofeedback, 25, 193-200.
  64. ^ Lehrer, P., Vaschillo, E., Lu, S. E., Eckberg, D., Vaschillo, B., Scardella, A., & Habib, R. (2006). Heart rate variability biofeedback: Effects of age on heart rate variability, baroreflex gain, and asthma. Chest, 129 (2), 278-284.
  65. ^ Budzynski, T. H., & Stoyva, J. M. (1969). An instrument for producing deep muscle relaxation by means of analog information feedback. Journal of Applied Behavior Analysis, 2, 231-237.
  66. ^ Budzynski, T. H., & Stoyva, J. M. (1973). An electromyographic technique for teaching voluntary relaxation of the masseter muscle. Journal of Dental Research, 52, 116-119.
  67. ^ Budzynski, T. H., Stoyva, J. M., Adler, C. S., & Mullaney, D. EMG biofeedback and tension headache: A controlled-outcome study. Psychosomatic Medicine, 35, 484-496.
  68. ^ Sargent, J. D., Green, E. E., & Walters, E. D. (1972). The use of autogenic feedback training in a pilot study of migraine and tension headaches. Headache, 12, 120-124.
  69. ^ Sargent, J. D., Walters, E. D., & Green, E. E. (1972). Psychosomatic self-regulation of migraine headaches. Seminars in Psychiatry, 5, 415-427.
  70. ^ Flor, H. (2002). Phantom-limb pain: characteristics, causes, and treatment. The Lancet, Neurology, 1 (3), 182-189.
  71. ^ McNulty, W. H., Gevirtz, R. N., Hubbard, D., & Berkoff, G. M. (1994). Needle electromyographic evaluation of trigger point response to a psychological stressor. Psychophysiology, 31(3), 313-316.
  72. ^ Biofeedback tutor (2010). Kirksville, MO: Biosource Software.
Retrieved from "https://en.wikipedia.org/w/index.php?title=User:Fredricshaffer/originsandbox&oldid=344763588"