Table 10.
Condition | Author/year | Study objective | Study design sample size intervention | Patient description/ condition | Primary/main outcome(s) | Main results/conclusions | Adverse events |
---|---|---|---|---|---|---|---|
Cranial Asymmetry | Cabrera-Martos I, et al. 2016 [58] | Evaluate the effects of manual therapy as an adjuvant option on treatment duration and motor development in infants with severe nonsynostotic plagiocephaly. | RCT n = 46 MT/CST |
Infants ages 4–8 months, with severe nonsynostotic plagiocephaly | Treatment duration and motor development assessed with Alberta Infant Motor Scale | Treatment duration was significantly reduced in manual therapy group (109.84 +/− 14.45) compared to the control group (148.65 +/− 11.53) days. Asymmetry after the treatment was minimal Type 0 or Type 1. Motor behaviour was normal in all the infants after treatment. | Study reported no adverse effects were seen during the treatment period. |
Lessard S, et al. 2011 [59] | Does osteopathic manipulation alter cranial asymmetry in infants. | Before-After n = 12 OMT |
Infants ages < 6.5 months, diagnosed with nonsynostotic plagiocephaly | Anthropometric changes | Osteopathic treatment led to improvements in cranial asymmetry. | There is no mention of adverse events made in this study. | |
Postural Asymmetry | Philippi H, et al. 2006 [60] | To assess the therapeutic efficacy of osteopathic manipulation in infants with postural asymmetry. | RCT n = 32 OMT/CST |
Infant ages 6–12 weeks, with postural asymmetry | Video-based measurements | Significant improvement in postural asymmetry (mean 5.9 points) observed with osteopathic manipulation. | “At least two of the seven vegetative symptoms aggravated for 2 days after the interventions in six patients of the control group and in four patients of the treatment group. Otherwise no adverse effects were seen.” |
Scoliosis | Byun S & Han D, 2016 [61] | Examine whether chiropractic techniques would reduce the curvature of idiopathic scoliosis. | Before-After n = 5 CMT |
Children ages 10–13, with Cobb angles > 10 degrees | Reduction in Cobb angle | No significant difference in Cobb angle was noted after the 4th week of chiropractic manipulation. | There is no mention of adverse events made in this study. |
Hasler C, et al. 2010 [65] | Test to see if osteopathy alters trunk morphology, to unload the concave side of the scoliosis to halt curve progression. | RCT n = 20 OMT |
Post-pubertal females ages 12–18, with Cobb angles 20–40 | Trunk morphology, spine flexibility and scoliometer measurements | Repeat measurements revealed no therapeutic effect on rib hump, lumbar prominence, plumb line, sagittal profile and global flexibility. | “No intervention-related side effects or complications were noted” | |
Rowe D, et al. 2006 [62] | To conduct a pilot (feasibility) study and explore issues of patient safety, patient recruitment and compliance, treatment standardization, sham treatment refinement, interprofessional cooperation, quality assurance, and outcome measure selection. | RCT n = 6 CMT |
Children ages 10–16, with Cobb angles 20–40 degrees | Reduction in Cobb angle | Feasible to recruit AIS patients for a randomized clinical trial to compare chiropractic care and standard medical treatment. | CMT delivered on 52 visits resulted in two benign reactions one with moderate pain lasting 24 h; the other produced mild pain lasting 6 h. | |
Morningstar M, et al. 2004 [63] | Evaluate of scoliosis treatment using a combination of manipulative and rehabilitative therapy. | Before-After n = 19 (6 pediatrics) CMT |
Scoliotic patients aged 15–65 (6 patients 18 and under- identified in Table 3 of study) | Reduction in Cobb angle | Reduction in Cobb angles in all patients. | There is no mention of adverse events made in this study. | |
Lantz C & Chen J, 2001 [64] | Effect of chiropractic manipulation on small scoliotic curves in younger subjects. | Before-After n = 42 CMT |
Children aged 6–17, with Cobb angles 6–25 | Reduction in Cobb angle | No overall reduction in Cobb angle after 6.5–28.5 months of care. | There is no mention of adverse events made in this study. | |
Torticollis | Haugen E, 2011 [66] | Evaluate measurement methods and examine short-time effect of manual therapy in addition to physiotherapy in infants with torticollis. | RCT n = 32 MT |
Infant aged 3–6 months, diagnosed with torticollis | Primary outcome: Videoclip recordings, Secondary outcomes: 12 parameters of body function, activity, participation | No significant difference in primary outcome. Found non-significant tendency to greater improvement in lateral flexion and head righting in intervention group. | There is no mention of adverse events made in this study. |
Upper Cervical Dysfunction | Saedt E, et al. 2018 [67] | To gain insight into the patient characteristics and reasons for seeking care in infants with indications of upper cervical dysfunction referred for manual therapy. | Before-After n = 295 MT |
Infants aged < 27 weeks, with positional preference, restlessness, abnormal head position, excessive crying | Improved flexion-rotation test and lateral flexion tests Parental perception of treatment effects Pre- and post treatment self-reported questionnaires | Flexion- rotation test decreased from 78.8 to 6.8%. Lateral flexion test decreased from 91.5% tp 6.2%. All parents perceived positive treatment effects. | No serious adverse events were reported during this study. |