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باسره, عارف, رجبی, حمید. (1401). کاربرد تحریک مغناطیسیِ فراجمجمه‌ای (TMS) در پاسخ و سازگاری‌های ورزشی. , 14(53), 60-17. doi: 10.22089/spj.2021.10502.2135
عارف باسره; حمید رجبی. "کاربرد تحریک مغناطیسیِ فراجمجمه‌ای (TMS) در پاسخ و سازگاری‌های ورزشی". , 14, 53, 1401, 60-17. doi: 10.22089/spj.2021.10502.2135
باسره, عارف, رجبی, حمید. (1401). 'کاربرد تحریک مغناطیسیِ فراجمجمه‌ای (TMS) در پاسخ و سازگاری‌های ورزشی', , 14(53), pp. 60-17. doi: 10.22089/spj.2021.10502.2135
باسره, عارف, رجبی, حمید. کاربرد تحریک مغناطیسیِ فراجمجمه‌ای (TMS) در پاسخ و سازگاری‌های ورزشی. , 1401; 14(53): 60-17. doi: 10.22089/spj.2021.10502.2135

کاربرد تحریک مغناطیسیِ فراجمجمه‌ای (TMS) در پاسخ و سازگاری‌های ورزشی

فیزیولوژی ورزشی
مقاله 1، دوره 14، شماره 53، اردیبهشت 1401، صفحه 60-17    اصل مقاله (1.44 M)
نوع مقاله: مقاله مروری
شناسه دیجیتال (DOI): 10.22089/spj.2021.10502.2135
نویسندگان
عارف باسره1؛ حمید رجبی* 2
1دکتری فیزیولوژی ورزشی، دانشکده تربیت بدنی، دانشگاه خوارزمی، تهران، ایران
2استاد گروه فیزیولوژی ورزشی، دانشکده تربیت بدنی، دانشگاه خوارزمی تهران، تهران، ایران
چکیده
اهداف: افزایش قدرت پس از یک دورۀ تمرین مقاومتی و چند انقباض نسبتاً شدید (توانمندسازی پس‌فعالی) و همچنین کاهش قدرت بعد از انقباض‌های تکراری (خستگی) و حرکات کششی ایستا (ناتوانی پس‌فعالی)، فقط به عضله مربوط نیست؛ بلکه سایر عوامل نیز مانند سیستم عصبی در این امر دخیل هستند. در سال‌های گذشته روش‌های مختلفی همچون الکترومایوگرافی سطحی، ثبت بازتاب نخاعی و ثبت تک‌واحد حرکتی برای اثبات نقش عوامل عصبی در تغییرات زودگذر و ماندگار قدرت به ‌کار برده شده است. در سی سال گذشته روش‌های نوینی همچون TMS برای بررسی سازوکارهای عصبی، در پاسخ و سازگاری به‌دنبال فعالیت مقاومتی به کار گرفته ‌شده است و اهمیت برانگیختگی و سطح ‌فعال‌سازی عصبی مرکزی در رخداد خستگی ورزشی و سازگاری‌های حاصل از تمرین مقاومتی نشان داده‌ شده است. مواد و روش‌ها: در این مقاله به مبانی دستگاه TMS و سطوح کاربرد این تکنیک به‌طور اجمالی اشاره ‌شده است.
یافته‌ها: نتایج نشان داد سطح برانگیختگی، به‌ویژه در قشر حرکتی پس از تکرارهای مقدماتی با بار نسبتاً شدید و پس از یک دوره تمرین مقاومتی افزایش، پس از جلسات تمرینی خسته‌کننده کاهش می‌یابد و بعد از حرکات کششی ایستا تغییر نمی‌کند. نتیجه گیری: هرچند TMS ابزاری ارزشمند برای تعیین کمیت سهم عوامل عصبی است، اما به‌تنهایی توانایی پاسخگویی به تمام سازوکارها و سازگاری‌های رخ‌داده پس از مداخله را ندارد و ترکیبی از تکنیک‌های موجود در حیطۀ علوم اعصاب، بینش بیشتری دربارۀ عملکرد مغز و انعطاف‌پذیری سیستم عصبی-عضلانی در پاسخ به ورزش حاد و مزمن فراهم می‌کند
کلیدواژه‌ها
سازگاری‌های عصبی؛ پتانسیل برانگیختۀ حرکتی؛ قدرت عضلانی؛ خستگی؛ توانمندسازی پس فعالی؛ ناتوانی پس فعالی
مراجع
  1. Ansdell P, Brownstein CG, Škarabot J, Angius L, Kidgell D, Frazer A, Hicks KM, Durbaba R, Howatson G, Goodall S, Thomas K. Task‐specific strength increases after lower‐limb compound resistance training occurred in the absence of corticospinal changes in vastus lateralis. Experimental physiology. 2020 Jul;105(7):1132-50.
  2. Škarabot J, Brownstein CG, Casolo A, Del Vecchio A, Ansdell P. The knowns and unknowns of neural adaptations to resistance training. European Journal of Applied Physiology. 2021 Mar;121(3):675-85.
  3. Glover IS, Baker SN. Cortical, Corticospinal, and Reticulospinal Contributions to Strength Training. Journal of Neuroscience. 2020;40(30):5820-5832.
  4. Mason J, Frazer AK, Avela J, Pearce AJ, Howatson G, Kidgell DJ. Tracking the corticospinal responses to strength training. European Journal of Applied Physiology. 2020 Apr;120(4):783-98.

 

 

  1. Mason J, Frazer AK, Pearce AJ, Goodwill AM, Howatson G, Jaberzadeh S, Kidgell DJ. Determining the early corticospinal-motoneuronal responses to strength training: a systematic review and meta-analysis. Reviews in the Neurosciences. 2019 Jul 1;30(5):463-76.
  2. Siddique U, Rahman S, Frazer AK, Pearce AJ, Howatson G, Kidgell DJ. Determining the sites of neural adaptations to resistance training: a systematic review and meta-analysis. Sports Medicine. 2020 Jun;50(6):1107-28.
  3. Goodall S, Howatson G, Romer L, Ross E. Transcranial magnetic stimulation in sport science: a commentary. European journal of sport science. 2014;14(sup1):S332-S40.
  4. Narici MV, Roi G, Landoni L, Minetti A, Cerretelli P. Changes in force, cross-sectional area and neural activation during strength training and detraining of the human quadriceps. European journal of applied physiology and occupational physiology. 1989;59(4):310-9.
  5. Duchateau J, Semmler JG, Enoka RM. Training adaptations in the behavior of human motor units. Journal of applied physiology. 2006 Dec;101(6):1766-75.
  6. Del Balso C, Cafarelli E. Adaptations in the activation of human skeletal muscle induced by short-term isometric resistance training. Journal of applied physiology. 2007 Jul;103(1):402-11.
  7. Khoramipour K, Ebrahim K, Hovanloo, Fariborz, Dehghan P, Basereh A. Effect of isometric exercise with different load with and without blood flow restriction on fast twitch fibers recruitment. Pajoohande. 2015;20(5):249-57. (In Persian).
  8. Attarzadeh hr, Ebrahimi e, Gharakhanlou r, Rajabi h. The effect of training program on the ratio of electrical activity of vmo to vl in knee closed kinetic chain.Olympic. 2005;13(3):41-50. (In Persian).
  9. Bassereh A, Ebrahim K, Hovanloo F, Dehghan P. The Effect of Different Pressures of Blood Flow Restriction with Isometric Exercise on EMG Changes. Sport Physiology & Management Investigations. 2016;8(3):119-29. (In Persian).
  10. Kidgell DJ, Bonanno DR, Frazer AK, Howatson G, Pearce AJ. Corticospinal responses following strength training: a systematic review and meta‐analysis. European Journal of Neuroscience. 2017 Dec;46(11):2648-61.
  11. Jenkins ND, Miramonti AA, Hill EC, Smith CM, Cochrane-Snyman KC, Housh TJ, Cramer JT. Greater neural adaptations following high-vs. low-load resistance training. Frontiers in physiology. 2017 May 29;8:331.
  12. Farina D, Merletti R, Enoka RM. The extraction of neural strategies from the surface EMG: an update. Journal of Applied Physiology. 2014 Dec 1;117(11):1215-30.
  13. Carroll TJ, Selvanayagam VS, Riek S, Semmler JG. Neural adaptations to strength training: moving beyond transcranial magnetic stimulation and reflex studies. Acta physiologica. 2011 Jun;202(2):119-40.
  14. Del Vecchio A, Casolo A, Negro F, Scorcelletti M, Bazzucchi I, Enoka R, Felici F, Farina D. The increase in muscle force after 4 weeks of strength training is mediated by adaptations in motor unit recruitment and rate coding. The Journal of physiology. 2019 Apr;597(7):1873-87.
  15. Fimland MS, Helgerud J, Solstad GM, Iversen VM, Leivseth G, Hoff J. Neural adaptations underlying cross-education after unilateral strength training. European journal of applied physiology. 2009 Dec;107(6):723-30.
  16. Lagerquist O, Zehr EP, Docherty D. Increased spinal reflex excitability is not associated with neural plasticity underlying the cross-education effect. Journal of Applied Physiology. 2006 Jan;100(1):83-90.
  17. Duclay J, Martin A, Robbe A, Pousson M. Spinal reflex plasticity during maximal dynamic contractions after eccentric training. Medicine and science in sports and exercise. 2008 Apr 1;40(4):722-34.
  18. Basereh A, Rajabi H, Gharibzadeh S, Afshari M. The Effect of Detraining After a Period of Resistance Training on Corticospinal Excitability Pathway of Arm Muscles. SOREN Student Sports & Health Open Researches e-Journal: New-Approaches. 2022;2(3):37-45. (In Persian).
  19. Aleman A. Use of repetitive transcranial magnetic stimulation for treatment in psychiatry. Clinical Psychopharmacology and Neuroscience. 2013 Aug;11(2):53-59.
  20. Galhardoni R, Correia GS, Araujo H, Yeng LT, Fernandes DT, Kaziyama HH, Marcolin MA, Bouhassira D, Teixeira MJ, de Andrade DC. Repetitive transcranial magnetic stimulation in chronic pain: a review of the literature. Archives of physical medicine and rehabilitation. 2015 Apr 1;96(4):S156-72.
  21. Balderston NL, Beydler EM, Goodwin M, Deng ZD, Radman T, Luber B, Lisanby SH, Ernst M, Grillon C. Low-frequency parietal repetitive transcranial magnetic stimulation reduces fear and anxiety. Translational psychiatry. 2020 Feb 17;10(1):
    1-0.
  22. Kavehee A, Gharakhanlou R, Rajabi H, Rezasoltani Z, Azema K, Amiri E. The Effect of Upper Limb Exhaustive Activity on Corticospinal Excitability and Motoneuron Responsiveness of Lower Limb. Sport Physiology. 2019 Mar 21;11(41):17-30. (In Persian).
  23. Hallett M. Transcranial magnetic stimulation and the human brain. Nature. 2000 Jul;406(6792):147-50.
  24. Mason J, Howatson G, Frazer AK, Pearce AJ, Jaberzadeh S, Avela J, Kidgell DJ. Modulation of intracortical inhibition and excitation in agonist and antagonist muscles following acute strength training. European journal of applied physiology. 2019 Oct;119(10):2185-99.
  25. Hassanzahraee M, Zoghi M, Jaberzadeh S. Longer transcranial magnetic stimulation intertrial interval increases size, reduces variability, and improves the reliability of motor evoked potentials. Brain connectivity. 2019 Dec 1;9(10):770-6.
  26. Kim EH, Hassan AS, Heckman CJ. Changes in motor unit discharge patterns following strength training. The Journal of physiology. 2019 Jul;597(14):3509.
  27. Johnson MD, Thompson CK, Tysseling VM, Powers RK, Heckman CJ. The potential for understanding the synaptic organization of human motor commands via the firing patterns of motoneurons. Journal of neurophysiology. 2017 Jul 1;118(1):520-31.
  28. Christie A, Kamen G. Cortical inhibition is reduced following short-term training in young and older adults. Age. 2014 Apr;36(2):749-58.
  29. Coombs TA, Frazer AK, Horvath DM, Pearce AJ, Howatson G, Kidgell DJ. Cross-education of wrist extensor strength is not influenced by non-dominant training in right-handers. European journal of applied physiology. 2016 Sep;116(9):1757-69.
  30. Kidgell DJ, Pearce AJ. Corticospinal properties following short-term strength training of an intrinsic hand muscle. Human movement science. 2010 Oct 1;29(5):631-41.
  31. Latella C, Kidgell DJ, Pearce AJ. Reduction in corticospinal inhibition in the trained and untrained limb following unilateral leg strength training. European journal of applied physiology. 2012 Aug;112(8):3097-107.
  32. Mason J, Frazer A, Horvath DM, Pearce AJ, Avela J, Howatson G, Kidgell D. Adaptations in corticospinal excitability and inhibition are not spatially confined to the agonist muscle following strength training. European Journal of Applied Physiology. 2017 Jul;117(7):1359-71.
  33. Tallent J, Goodall S, Gibbon KC, Hortobágyi T, Howatson G. Enhanced corticospinal excitability and volitional drive in response to shortening and lengthening strength training and changes following detraining. Frontiers in physiology. 2017 Feb 7;8(1):57.
  34. Leung M, Rantalainen T, Teo WP, Kidgell D. The corticospinal responses of metronome-paced, but not self-paced strength training are similar to motor skill training. European journal of applied physiology. 2017 Dec;117(12):2479-92.
  35. Goodwill AM, Pearce AJ, Kidgell DJ. Corticomotor plasticity following unilateral strength training. Muscle & nerve. 2012 Sep;46(3):384-93.
  36. Weier AT, Pearce AJ, Kidgell DJ. Strength training reduces intracortical inhibition. Acta physiologica. 2012 Oct;206(2):109-19.
  37. Kidgell DJ, Stokes MA, Pearce AJ. Strength training of one limb increases corticomotor excitability projecting to the contralateral homologous limb. Motor control. 2011 Apr 1;15(2):247-66.
  38. Hortobágyi T, Richardson SP, Lomarev M, Shamim E, Meunier S, Russman H, Dang N, Hallett M. Chronic low-frequency rTMS of primary motor cortex diminishes exercise training-induced gains in maximal voluntary force in humans. Journal of Applied Physiology. 2009 Feb;106(2):403-11.
  39. Carroll TJ, Riek S, Carson RG. The sites of neural adaptation induced by resistance training in humans. The Journal of physiology. 2002 Oct;544(2):641-52.
  40. Kesar TM, Tan A, Eicholtz S, Baker K, Xu J, Anderson JT, Wolf SL, Borich MR. Agonist-Antagonist Coactivation Enhances Corticomotor Excitability of Ankle Muscles. Neural Plasticity. 2019 Sep 3;2019.
  41. Hassanlouei H, Sundberg CW, Smith AE, Kuplic A, Hunter SK. Physical activity modulates corticospinal excitability of the lower limb in young and old adults. Journal of Applied Physiology. 2017 Aug 1;123(2):364-74.
  42. Pellegrini M, Zoghi M, Jaberzadeh S. The effect of transcranial magnetic stimulation test intensity on the amplitude, variability and reliability of motor evoked potentials. Brain Research. 2018 Dec 1;1700:190-8.
  43. Stagg CJ, Bestmann S, Constantinescu AO, Moreno Moreno L, Allman C, Mekle R, Woolrich M, Near J, Johansen‐Berg H, Rothwell JC. Relationship between physiological measures of excitability and levels of glutamate and GABA in the human motor cortex. The Journal of physiology. 2011 Dec;589(23):5845-55.
  44. Clark BC, Mahato NK, Nakazawa M, Law TD, Thomas JS. The power of the mind: the cortex as a critical determinant of muscle strength/weakness. Journal of neurophysiology. 2014 Dec 15;112(12):3219-26.
  45. Mason J, Frazer AK, Jaberzadeh S, Ahtiainen JP, Avela J, Rantalainen T, Leung M, Kidgell DJ. Determining the corticospinal responses to single bouts of skill and strength training. The Journal of Strength & Conditioning Research. 2019 Sep 1;33(9):2299-307.
  46. Inghilleri M, Berardelli A, Cruccu G, Manfredi M. Silent period evoked by transcranial stimulation of the human cortex and cervicomedullary junction. The Journal of physiology. 1993 Jul 1;466(1):521-34.
  47. Kojima S, Onishi H, Sugawara K, Kirimoto H, Suzuki M, Tamaki H. Modulation of the cortical silent period elicited by single-and paired-pulse transcranial magnetic stimulation. BMC neuroscience. 2013 Dec;14(1):1-0.
  48. Lévénez M, Garland SJ, Klass M, Duchateau J. Cortical and spinal modulation of antagonist coactivation during a submaximal fatiguing contraction in humans. Journal of Neurophysiology. 2008 Feb;99(2):554-63.
  49. Rossini PM, Burke D, Chen R, Cohen LG, Daskalakis Z, Di Iorio R, Di Lazzaro V, Ferreri F, Fitzgerald PB, George MS, Hallett M. Non-invasive electrical and magnetic stimulation of the brain, spinal cord, roots and peripheral nerves: Basic principles and procedures for routine clinical and research application. An updated report from an IFCN Committee. Clinical neurophysiology. 2015 Jun 1;126(6):1071-107.
  50. Beck S, Taube W, Gruber M, Amtage F, Gollhofer A, Schubert M. Task-specific changes in motor evoked potentials of lower limb muscles after different training interventions. Brain research. 2007 Nov 7;1179:51-60.
  51. Collins BW, Gale LH, Buckle NC, Button DC. Corticospinal excitability to the biceps brachii and its relationship to postactivation potentiation of the elbow flexors. Physiological Reports. 2017 Apr;5(8):e13265.
  52. Smith CB, Allen MD, Rice CL. Coexistence of peripheral potentiation and corticospinal inhibition following a conditioning contraction in human first dorsal interosseous muscle. Journal of Applied Physiology. 2020 Oct 1;129(4):926-31.
  53. Bapiran M, Rajabi H, Mmotamedi P. The Effect of Intensity and Specificity of Muscle Pre-Activation on Maximum Force, Leg Velocity and Vertical Jump Performance in Trained Men. Sport Physiology. 2017 Apr 21;9(33):37-50. (In Persian).
  54. Abdolmaleki A, Motamedi P, Anbarian M, RajabI H. The Effect Of Type And Intensity Of Voluntary Contractions On Some Of Vertical Jump's Electrophysiological Variables In Track And Field Athletes. 2013;20(4);
    7-17.     (In Persian).
  55. Blazevich AJ, Babault N. Post-activation potentiation versus post-activation performance enhancement in humans: historical perspective, underlying mechanisms, and current issues. Frontiers in Physiology. 2019;10(1):1359.
  56. Cuenca-Fernández F, Smith IC, Jordan MJ, MacIntosh BR, López-Contreras G, Arellano R, Herzog W. Nonlocalized postactivation performance enhancement (PAPE) effects in trained athletes: a pilot study. Applied Physiology, Nutrition, and Metabolism. 2017;42(10):1122-5.
  57. Thomas K, West DJ, Howatson G, Goodall S. Heavy‐resistance exercise‐induced increases in jump performance are not explained by changes in neuromuscular function. Scandinavian Journal of Medicine & Science in Sports. 2017 Jan;27(1):35-44.
  58. Folland JP, Wakamatsu T, Fimland MS. The influence of maximal isometric activity on twitch and H-reflex potentiation, and quadriceps femoris performance. European journal of applied physiology. 2008 Nov;104(4):739-48.
  59. Aboodarda SJ, Copithorne DB, Pearcey GE, Button DC, Power KE. Changes in supraspinal and spinal excitability of the biceps brachii following brief, non-fatiguing submaximal contractions of the elbow flexors in resistance-trained males. Neuroscience Letters. 2015 Oct 21;607:66-71.
  60. Talis VL, Kazennikov OV, Castellote JM, Grishin AA, Ioffe ME. Prior history of FDI muscle contraction: different effect on MEP amplitude and muscle activity. Experimental brain research. 2014 Mar;232(3):803-10.
  61. Vandervoort AA, Quinlan J, McComas AJ. Twitch potentiation after voluntary contraction. Experimental neurology. 1983 Jul 1;81(1):141-52.
  62. Stuart M, Butler JE, Collins DF, Taylor JL, Gandevia SC. The history of contraction of the wrist flexors can change cortical excitability. The Journal of physiology. 2002 Dec;545(3):731-7.
  63. Balbi P, Perretti A, Sannino M, Marcantonio L, Santoro L. Postexercise facilitation of motor evoked potentials following transcranial magnetic stimulation: a study in normal subjects. Muscle & nerve. 2002 Mar;25(3):448-52.
  64. Amiri E, Gharakhanlou R, Rajabi H, Rezasoltani Z, Azma K, Kavehee A. Changes in corticospinal excitability and motoneurones responsiveness during and within a time-course after submaximal fatiguing contractions. Sport Physiology. 2018 Oct 23;10(39):33-50. (In Persian).
  65. McMorris T, Barwood M, Corbett J. Central fatigue theory and endurance exercise: Toward an interoceptive model. Neuroscience & Biobehavioral Reviews. 2018 Oct 1;93:93-107.
  66. Gandevia SC. Spinal and supraspinal factors in human muscle fatigue. Physiological reviews. 2001 Jan 10;18(4):1725-1789.
  67. Yamashita M. Potential Role of Neuroactive Tryptophan Metabolites in Central Fatigue: Establishment of the Fatigue Circuit. International Journal of Tryptophan Research. 2020;13:1178646920936279.
  68. Kwak JJ, Yook JS, Ha MS. Potential biomarkers of peripheral and central fatigue in high-intensity trained athletes at high-temperature: a pilot study with Momordica charantia (bitter melon). Journal of Immunology Research. 2020 Jun; 8(1);2020.
  69. Davis MP, Walsh D. Mechanisms of fatigue. J Support Oncol. 2010;8(4):164-74.
  70. Meeusen R, Roelands B. Fatigue: is it all neurochemistry?. European Journal of Sport Science. 2018 Jan 2;18(1):37-46.
  71. Ahmadi E, Rajabi H, Barzegarpoor H, Fayazmilani R. Monitoring the effects of brain and physical endurance training on overreaching indices in active individuals. Journal of Applied Exercise Physiology. 2020 Nov 21;16(32):12-3. (In Persian).
  72. Barzegarpoor H, Amoozi H, Rajabi H, Button D, Fayazmilani R. The effects of performing mental exertion during cycling exercise on fatigue indices. International Journal of Sports Medicine. 2020 Oct;41(12):846-57.
  73. Ahmadabadi S, Rajabi H, Gharakhanlo R, Talebian S. The effect of fatique due to plyometric training on activity pattern of rectus femoris muscle in different phases of deep jump on active girl. mrj. 2014; 8 (4) :11-20. (In Persian).
  74. Otieno LA, Semmler JG, Sidhu SK. Single joint fatiguing exercise decreases long but not short–interval intracortical inhibition in older adults. Experimental Brain Research. 2021 Jan;239(1):47-58.
  75. Otieno LA, Opie GM, Semmler JG, Ridding MC, Sidhu SK. Intermittent single-joint fatiguing exercise reduces TMS-EEG measures of cortical inhibition. Journal of Neurophysiology. 2019 Feb 1;121(2):471-9.
  76. Mira J, Lapole T, Souron R, Messonnier L, Millet GY, Rupp T. Cortical voluntary activation testing methodology impacts central fatigue. European Journal of Applied Physiology. 2017 Sep;117(9):1845-57.
  77. Hunter SK, McNeil CJ, Butler JE, Gandevia SC, Taylor JL. Short-interval cortical inhibition and intracortical facilitation during submaximal voluntary contractions changes with fatigue. Experimental brain research. 2016 Sep;234(9):2541-51.
  78. Takahashi K, Maruyama A, Hirakoba K, Maeda M, Etoh S, Kawahira K, Rothwell JC. Fatiguing intermittent lower limb exercise influences corticospinal and corticocortical excitability in the nonexercised upper limb. Brain stimulation. 2011 Apr 1;4(2):90-6.
  79. Chaabene H, Behm DG, Negra Y, Granacher U. Acute effects of static stretching on muscle strength and power: an attempt to clarify previous caveats. Frontiers in physiology. 2019;10(1):1468.
  80. Geramyan Z, Rajabi H. Acute effects of aerobic exercise, core stability exercise and static stretch on elite women shooters performance. Olympic Modern. 2013;21(2):75-88. (In Persian).
  81. Behm DG, Kay AD, Trajano GS, Blazevich AJ. Mechanisms underlying performance impairments following prolonged static stretching without a comprehensive
    warm-up. European Journal of Applied Physiology. 2021 Jan;121(1):67-94.
  82. Caldwell SL, Bilodeau RL, Cox MJ, Peddle D, Cavanaugh T, Young JD, Behm DG. Unilateral hamstrings static stretching can impair the affected and contralateral knee extension force but improve unilateral drop jump height. European Journal of Applied Physiology. 2019 Sep;119(9):1943-9.
  83. Trajano GS, Seitz L, Nosaka K, Blazevich AJ. Contribution of central vs. peripheral factors to the force loss induced by passive stretch of the human plantar flexors. Journal of Applied Physiology. 2013 Jul 15;115(2):212-8.
  84. Budini F, Christova M, Gallasch E, Kressnik P, Rafolt D, Tilp M. Transient Increase in Cortical Excitability Following Static Stretching of Plantar Flexor Muscles. Frontiers in Physiology. 2018;9(530):1-9.
  85. Budini F, Gallasch E, Christova M, Rafolt D, Rauscher AB, Tilp M. One minute static stretch of plantar flexors transiently increases H reflex excitability and exerts no effect on corticospinal pathways. Experimental Physiology. 2017 Aug 1;102(8):901-10.
  86. Budini F, Kemper D, Christova M, Gallasch E, Rafolt D, Tilp M. Five minutes static stretching influences neural responses at spinal level in the background of unchanged corticospinal excitability. Journal of Musculoskeletal & Neuronal Interactions. 2019;19(1):30.
  87. Pulverenti TS, Trajano GS, Walsh A, Kirk BJ, Blazevich AJ. Lack of cortical or
    Ia-afferent spinal pathway involvement in muscle force loss after passive static stretching. Journal of Neurophysiology. 2020 May 1;123(5):1896-906.
  88. Opplert J, Paizis C, Papitsa A, Blazevich AJ, Cometti C, Babault N. Static stretch and dynamic muscle activity induce acute similar increase in corticospinal excitability. Plos one. 2020 Mar 19;15(3):e0230388.
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