The concept of the use of artificial correction of movements in orthopedics, traumatology and prosthetics

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Abstract

Principles and methods of artificial movement correction (AMC) with muscle electrostimulation during pathologic gait were considered. It was shown that the most important peculiarity of AMC was phase conformity of artificial and natural irritation as well as construction of muscles at movement. Electrostimulation in M zone, when muscle activity at movement is the maximum one, is obligatory. The main functions of AMC were detected: i.e. therapeutic, diagnostic and prognostic. Indications and contraindications for FMC application as well as technological operation were determined. Clinical and instrumentation evaluation of AMC results in certain pathologic changes of loco-motor system, i.e. crus stump, III degree of scoliotic deformity, non-union and pseudoarthrosis of bone crus is given.

About the authors

A. S. Vitenzon

Federal Scientific and Practical Center for Medical and Social Expertise and Rehabilitation of the Disabled

Email: info@eco-vector.com
Russian Federation, Moscow

K. A. Petrushanskaya

Federal Scientific and Practical Center for Medical and Social Expertise and Rehabilitation of the Disabled

Author for correspondence.
Email: info@eco-vector.com
Russian Federation, Moscow

References

  1. Баев К.В. Нейронные механизмы программирования спинным мозгом ритмических движений. — Киев,1984.
  2. Витензон А.С. Закономерности нормальной и патологической ходьбы человека. — М.,1998.
  3. Витензон А.С., Миронов Е.М., Петрушанская К.А., Скоблин А.А. Искусственная коррекция движений при патологической ходьбе. — М.,1999.
  4. Витензон А.С., Буровой А.М., Петрушанская К.А. и др. Коррекция ходьбы больных с различной патологией опорно-двигательного аппарата посредством многоканальной программируемой электростимуляции мышц: Метод. рекомендации. — М.,2000.
  5. Витензон А.С., Скоблин А.А., Миронов Е.М., Гаврилов А.В. //Протезирование и протезостроение. — 1996. — Вып. 93. — М., ЦНИИПП. — С. 45-59.
  6. Шик М.Л. //Физиология движений. — Л.,1976. — С. 234-275.
  7. Vitenson A.S., Petrushanskaya К.А. //Rus. J. Biomech. — 2002. — Vol. 6, N 2. — P. 33-50.

Supplementary files

Supplementary Files
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1. JATS XML
2. Fig. 1. Zones of electrical activity of muscles during the locomotor cycle. M — maximum activity, Y — moderate activity, H — low-amplitude activity; 1 - calf muscle, 2 - tibialis anterior, 3 - wide external, 4 - semitendinosus. Below the graphs is a subgram (designation of the phases of the step): a - heel, b - foot, c - toe, d - transfer). Here and in other figures: along the abscissa axis - time (in% of the duration of the double step), along the ordinate axis - the average electrical activity (в мкВ).

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3. Fig. 2. EMG profile of the extensor muscles of the prosthetic (A) and preserved (B) lower extremities of disabled people when walking on a prosthetic leg before (dashed line) and after (solid line) an ICD course. 1 - calf muscle, 2 - wide external, 3 - rectus femoris, 4 - gluteus medius, 5 - gluteus maximus. Below the graphs is a subgram.

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4. Fig. 3. EMG profile of the sacrospinous muscles during walking in patients with grade I-II scoliosis before (dashed line) and after (solid line) the ICD course. A - the convex side of the curvature of the spine, B - concave; 1-5 - numbers of patients. Below the graphs is a subgram.

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5. Fig. 4. EMG profile of walking muscles in patients with ununited fractures of the shin bones before (dotted line) and after (solid line) the ICD course. A — affected limb, B — intact limb; 1 - tibialis anterior, 2 - gastrocnemius, 3 - wide external, 4 - semitendinosus, 5 - gluteus maximus. Below the graphs is a subgram.

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