Spinal manipulation frequency and dosage effects on clinical and physiological outcomes: a scoping review.

M��gane Pasquier, Catherine Daneau, Andr��e-Anne Marchand, Arnaud Lardon, Martin Descarreaux
Author Information
  1. M��gane Pasquier: 1Department of Anatomy, Universit�� du Qu��bec �� Trois-Rivi��res, Trois- Rivi��res, Qu��bec Canada.
  2. Catherine Daneau: 3Department of Human Kinetics, Universit�� du Qu��bec �� Trois-Rivi��res, Trois- Rivi��res, Qu��bec Canada.
  3. Andr��e-Anne Marchand: 1Department of Anatomy, Universit�� du Qu��bec �� Trois-Rivi��res, Trois- Rivi��res, Qu��bec Canada.
  4. Arnaud Lardon: Institut Franco-Europ��en de Chiropraxie, Ivry-sur-Seine, France.
  5. Martin Descarreaux: 3Department of Human Kinetics, Universit�� du Qu��bec �� Trois-Rivi��res, Trois- Rivi��res, Qu��bec Canada.

Abstract

Introduction: The burden of musculoskeletal disorders increases every year, with low back and neck pain being the most frequently reported conditions for seeking manual therapy treatment. In recent years, manual therapy research has begun exploring the dose-response relationship between spinal manipulation treatment characteristics and both clinical and physiological response to treatment.
Objective: The purpose of this scoping review was to identify and appraise the current state of scientific knowledge regarding the effects of spinal manipulation frequency and dosage on both clinical and physiological responses.
Methods: A scoping review was conducted to identify all available studies pertaining to our research question. Retrieved papers were screened using a 2-phase method, a selective sorting with titles and abstracts. Potentially relevant studies were read, and data was extracted for all included studies. Randomized control trials were assessed using the Cochrane Risk of Bias Tool for quality assessment.
Results: The search yielded 4854 publications from which 32 were included for analysis. Results were sorted by dosage or frequency outcomes, and divided into human or animal studies. Animal studies mainly focused on dosage and evaluated physiological outcomes only. Studies investigating spinal manipulation dosage effects involved both human and animal research, and showed that varying thrust forces, or thrust durations can impact vertebral displacement, muscular response amplitude or muscle spindle activity. Risk of bias analysis indicated only two clinical trials assessing frequency effects presented a low risk of bias. Although trends in improvement were observed and indicated that increasing the number of SM visits in a short period of time (few weeks) decreased pain and improve disability, the differences between the studied treatment frequencies, were often not statistically significant and therefore not clinically meaningful.
Conclusion: The results of this study showed that SM dosage and frequency effects have been mostly studied over the past two decades. Definitions for these two concepts however differ across studies. Overall, the results showed that treatment frequency does not significantly affect clinical outcomes during and following a SM treatment period. Dosage effects clearly influence short-term physiological responses to SM treatment, but relationships between these responses and clinical outcomes remains to be investigated.

Keywords

References

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MeSH Term

Animals
Humans
Manipulation, Spinal
Musculoskeletal Diseases
Randomized Controlled Trials as Topic

Word Cloud

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