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Resolution of Infertility in a 30-Year-Old Following Chiropractic Care to Correct Vertebral Subluxation Utilizing Chiropractic BioPhysics: A Case Study

Authors:
  • Ideal Spine Health Center
  • Chiropractic BioPhysics Technique and CBP NonProfit, Inc. --A Spine Research Foundation in Eagle, ID

Abstract and Figures

Objective: To present the successful conception in a 30-year old shortly after starting chiropractic care utilizing Chiropractic BioPhysics® (CBP®) technique. Clinical Features: The chief complaint was infertility but the patient also reported headaches, low back pain and middle back pain. The patient also demonstrated vertebral subluxations, a loss of all sagittal spinal curves and leg length inequality. Intervention and Outcome: The patient was managed by CBP technique incorporating mirror image neck extension exercises, chiropractic adjustments, and traction aimed at restoring the sagittal curves of the spine. After 30 visits the patient report having conceived and care was reduced to a maintenance schedule of two times a month. The patient also reported decreases in all pain areas and an improvement in quality of life as noted on several indices of the SF-36. Conclusion: Chiropractic care in the form of CBP led to the successful improvement in health and to conception in a patient suffering from infertility.
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Introduction
Infertility is the inability to accomplish a pregnancy within
one year of regular sexual intercourse without contraception.1
Infertility is a distressing health concern for many couples,2
and may be due to male and female factors (20%), male
factors (35%), female factors (35%), or unknown factors
(10%).3 In 2010, it was estimated in the US that 48.5 million
couples were infertile,4 and this number is expected to rise.5
Many infertile females seek out manual therapists for
treatment for their body, spine and posture in desperation for
improving their health status. There have been many
documented cases of infertile females having a successful
conception after receiving chiropractic care.6-10 There has
even been an entire issue of this journal, formally the Journal
of Vertebral Subluxation Research, dedicated to the
resolution of infertility in patients receiving various
chiropractic technique approaches (2003).
We present the successful case of a 30-year-old achieving
conception shortly after starting chiropractic care utilizing
Chiropractic BioPhysics® (CBP®) technique.
CASE STUDY
Resolution of Infertility in a 30-Year-Old Following
Chiropractic Care to Correct Vertebral Subluxation
Utilizing Chiropractic BioPhysics: A Case Study
Justin Anderson, DC1, Paul A. Oakley, DC2 & Deed E. Harrison, DC3
Abstract
Objective: To present the successful conception in a 30-year old shortly after starting chiropractic care utilizing
Chiropractic BioPhysics® (CBP®) technique.
Clinical Features: The chief complaint was infertility but the patient also reported headaches, low back pain and middle
back pain. The patient also demonstrated vertebral subluxations, a loss of all sagittal spinal curves and leg length
inequality.
Intervention and Outcome: The patient was managed by CBP technique incorporating mirror image neck extension
exercises, chiropractic adjustments, and traction aimed at restoring the sagittal curves of the spine. After 30 visits the
patient report having conceived and care was reduced to a maintenance schedule of two times a month. The patient also
reported decreases in all pain areas and an improvement in quality of life as noted on several indices of the SF-36.
Conclusion: Chiropractic care in the form of CBP led to the successful improvement in health and to conception in a
patient suffering from infertility.
Keywords: Infertility, CBP, chiropractic, adjustment, vertebral subluxation, posture, cervical spine, lumbar spine,
thoracic spine, rehabilitation
1. Private Practice of Chiropractic, Eagle, Idaho, USA
2. Private Practice of Chiropractic, Newmarket, ON, Canada
3. President, CBP Non-Profit, Eagle, ID
Infertility J. Pediatric, Maternal & Family Health April 26, 2018 34
Case Report
Clinical Features
A 30-year-old female nurse presented to a chiropractic clinic.
She was 5’3”, 132lbs and Caucasian. Her main complaint
was infertility but also reported headaches, low back pain
(LBP) and middle back pain (MBP).
Her previous health history indicated that she had been
diagnosed with infertility one year prior. She was receiving
lab tests, performing temperature monitoring and purchasing
ovulation kits for infertility and was taking Clomid (100mg
throughout days 5-9 of her cycle) for infertility and was
working with a midwife. She had also received previous
chiropractic care.
The initial exam findings revealed palpatory pain and
hypertonicity located from C5-C7, T1-T10, and L5
bilaterally. She had a decrease in all range of motion
movements in the cervical spine with pain in flexion with
pulling in the low back, a decreased right axial rotation in the
thoracic spine, and pain with lumbar extension.
Positive orthopedic tests included a positive kemps,
bilaterally. Deep tendon reflexes were normal. There was a
decreased sensation on the right C6 and right L4
dermatomes. Using the numerical rating scale (NRS: 0=no
pain; 10= worst pain ever) she reported a 3/10 for headaches,
a 2/10 for low back pain, and a 3/10 for upper back pain.
On the 36-item quality of life questionnaire (SF-36), she
scored: Physical functioning-100, Role limitation due to
physical health-100, Role limitations due to emotional
problems- 66.7, Energy/Fatigue-90, Emotional well-being-
80, Social functioning 87.5, Pain-67.5, General health-80. On
the revised Oswestry chronic low back disability
questionnaire (ODI) she scored a 16%, and on the neck
disability index (NDI) she scored a 12%.
Posture assessment revealed postural deformities:11 forward
head translation (+TzH), left head translation (-TxH), left
thorax translation (+TxT), posterior thoracic translation (-
TzT), an extended thorax (-RyT), anterior pelvis translation
(+TzP), and a left rotation of the pelvis (+RyP).
Radiographic Assessment
Full spine radiographs were taken and analyzed using the
PostureRay software (Trinity, FL, USA). This system uses
the Harrison posterior tangent method for lateral images12-15
and the modified Risser-Ferguson method for antero-
posterior (AP) images.15 These methods are repeatable and
reliable, as is posture analysis.12-16
The radiographs demonstrated the patient had vertebral
subluxation, a reduction of all the sagittal curves of the spine;
hypolordosis of the cervical and lumbar lordosis as well as
hypokyphosis of the thoracic kyphosis (Fig. 1; Fig. 2). The
cervical spine C2-C7 ARA was -4.8° (vs. 32-42° normal17,18)
with a forward translation of 12.4mm, the thoracic spine T1-
T12 ARA was 19.9° (vs. 44° normal19), and the lumbar spine
L1-L5 ARA
was -35.3° (vs. 40° normal20). The patient was also diagnosed
with an anatomical leg length inequality (LLI) with the left
leg being shorter (Fig. 1).
Intervention and Outcome
The patient received CBP technique protocol including
mirror image® exercises, chiropractic adjustments and
traction.21-24 She was to be seen three times a week for 12
weeks, resulting in 36 visits as a part of her ‘corrective care
program.’ She was also prescribed home care consisting of
laying on both a medium cervical and small lumbar
Denneroll (Denneroll Spinal Orthotics: Wheeler Heights,
NSW, Australia) for 20 minutes, 3-5 times per week. The
corrective exercises included neck extensions with a pro-
lordotic (Circular traction, Huntington Beach, CA, USA).
The patient was given a 9mm heel lift for the left foot to
balance the LLI.
Traction was designed to increase the sagittal curves of the
spine (Fig. 3). A Denneroll table (Denneroll Spinal Orthotics:
Wheeler Heights, NSW, Australia) was used where both the
cervical and lumbar curves were being accentuated while the
thoracic spine was pulled down with a securing strap.
Two months after beginning chiropractic care the patient
reported having ovulated for two months in a row for the first
time. After 30 visits the patient reported to have conceived
three months after beginning care.
A follow-up assessment was performed while the patient was
in her first trimester. All ROM were WNL with no pain.
Kemps test was negative and all dermatome testing was
WNL. The NRS pain scores were 0/10 for headaches, 0/10
for LBP, and 1/10 for MBP. The SF-36 scores were: physical
functioning-100, role limitations due to physical health-100,
role limitations due to emotional problems-100,
energy/fatigue-40, emotional well-being-92, social
functioning-100, pain-70, general health-85. She scored a
10% on the ODI and 8% on the NDI. The patient continued
care throughout her pregnancy at a frequency of two times
per month.
Discussion
This case demonstrates the successful achievement of
conception in a female suffering from infertility shortly after
starting a CBP corrective chiropractic care program.
Although there is no post-care radiographic assessment to
compare the improvement in posture prior to her successful
conception, it is assumed there were postural improvements
as have been repeatedly substantiated in the literature using
CBP methods.25-37
How does chiropractic care and improvement of posture help
resolve infertility? It is presumed that stimulation and relief
of tension on the spinal cord and nerves play the key role in
enabling a female patient to become fertile following
chiropractic care. Structurally speaking this patient had
vertebral subluxation and reduced sagittal curves throughout
all regions in the spine. This lengthens the spinal canal and
therefore exerts increased tension onto the spinal cord even
35 J. Pediatric, Maternal & Family Health April 26, 2018 Infertility
during normal motions of the spine and neck.38 The resultant
‘pathologic’ neurological tensions39) are likely the culprit in
neurologic compromise in function of the organs, including
those related to fertility.
Chiropractic adjustments and postural traction and exercises
undoubtedly ‘work out the kinks’ so to speak by releasing
fixated spinal segments, tissues adhesions etc. Further, any
improvement in spinal alignment will also facilitate the
healing capabilities of the body, encouraging better oxygen
delivery, lymphatic drainage and overall improvement in
neural conduction, as the latter has just been proven to occur
in asymptomatic subjects receiving CBP care for forward
head posture and hypolordosis.40
This case is limited by being a single case, no long-term
follow-up, and the lack of radiology assessment after the
patient reported to have been able to conceive. Further
research is necessary to elucidate the precise mechanisms
chiropractic and posture improvements have on the
physiology of those with infertility issues.
References
1. Zegers-Hochschild F, Adamson GD, de Mouzon J, et al.;
International Committee for Monitoring Assisted
Reproductive Technology; World Health Organization.
International Committee for Monitoring Assisted
Reproductive Technology (ICMART) and the World
Health Organization (WHO) revised glossary of ART
terminology, Fertil Steril. 2009 Nov;92(5):1520-4.
2. Griel AL. Infertility and psychological distress: a critical
review of the literature. Soc Sci Med. 1997;45:1679-
1704.
3. Trussell J, Wilson C. Sterility in a population with
natural fertility. Popul Stud 1985;29:269-286.
4. Mascarenhas MN, Flaxman SR, Boerma T, et al.
National, regional, and global trends in infertility
prevalence since 1990: a systematic analysis of 277
health surveys. PLoS Med. 2012;9(12):e1001356.
5. Chachamovich JR, Chachamovich E, Ezer H, et al.
Investigating quality of life and health-related quality of
life in infertility: a systematic review. J Psychosom
Obstet Gynaecol. 2010 Jun;31(2):101-10.
6. Colman LA, Jaques CM. Resolution of infertility
following chiropractic care for vertebral subluxation: A
case study and review of the literature. J Pediatr Matern
& Fam Health - Chiropr. 2017(1):8-15
7. Stenberg J, Hilpisch J. Female infertility and upper
cervical chiropractic care: A case series. J Upper
Cervical Chiropr Res. 2016(3):31-43.
8. Metzger DK. Resolution of infertility in a patient with
polycystic ovarian syndrome, hypothyroidism, and
ulcerative colitis following subluxation-based
chiropractic care: A case report and selective review of
the literature. J Pediatr Matern & Fam Health - Chiropr.
2016(3):68-74.
9. Lombardi P, Revels K. Resolution of infertility
following subluxation based chiropractic care: A case
study. Ann Vert Sublux Res. 2015(2):99-107.
10. Borkhuis S, Crowell M. Resolution of infertility in a 31-
year-old female undergoing chiropractic care for the
reduction of vertebral subluxation: A case report. J
Pediatr Matern & Fam Health - Chiropr. 2013(4):78-83.
11. Harrison DD. Abnormal postural permutations
calculated as rotations and translations from an ideal
normal upright static posture. In Sweere, JJ. Chiropractic
Family Practice, Aspen Publishers, Gaithersburg, 1992,
chap 6-1, p. 1-22.
12. Harrison DE, Harrison DD, Cailliet R, et al. Cobb
method or Harrison posterior tangent method: which to
choose for lateral cervical radiographic analysis. Spine
2000;25:2072-2078.
13. Harrison DE, Cailliet R, Harrison DD, et al. Reliability
of centroid, Cobb, and Harrison posterior tangent
methods: which to choose for analysis of thoracic
kyphosis. Spine 2001;26:E227-234.
14. Harrison DE, Harrison DD, Cailliet R, et al.
Radiographic analysis of lumbar lordosis: centroid,
Cobb, TRALL, and Harrison posterior tangent methods.
Spine 2001;26:E235-242.
15. Harrison DE, Holland B, Harrison DD, et al. Further
reliability analysis of the Harrison radiographic line
drawing methods: Crossed ICCs for lateral posterior
tangents and AP Modified-Risser Ferguson. J
Manipulative Physiol Ther 2002;25:93-98.
16. Harrison DE, Harrison DD, Colloca CJ, et al.
Repeatability over time of posture, radiograph
positioning, and radiograph line drawing: An analysis of
six control groups. J Manipulative Physiol Ther
2003;26:87-98.
17. Harrison DD, Harrison DE, Janik TJ, et al. Modeling of
the sagittal cervical spine as a method to discriminate
hypolordosis. Results of elliptical and circular modeling
in 72 asymptomatic subjects, 52 acute neck pain
subjects, and 70 chronic neck pain subjects. Spine
2004;29:2485-2492.
18. McAviney J, Schulz D, Bock R, et al. Determining the
relationship between cervical lordosis and neck
complaints. J Manipulative Physiol Ther 2005;28:187-
193.
19. Harrison DE, Janik TJ, Harrison DD, et al. Can the
thoracic kyphosis be modeled with a simple geometric
shape? The results of circular and elliptical modeling in
80 asymptomatic patients. J Spinal Disord Tech
2002;15:213-220.
20. Harrison DD, Cailliet R, Janik TJ, et al. Elliptical
modeling of the sagittal lumbar lordosis and segmental
rotation angles as a method to discriminate between
normal and low back pain subjects. J Spinal Disord
1998;11(5):430-9.
21. Harrison DD, Janik TJ, Harrison GR, et al. Chiropractic
Biophysics technique: a linear algebra approach to
posture in chiropractic. J Manipulative Physiol Ther
1996;19:525-535.
22. Oakley PA, Harrison DD, Harrison DE, et al. Evidence-
based protocol for structural rehabilitation of the spine
and posture: review of clinical biomechanics of posture
(CBP®) publications. J Can Chiropr Assoc 2005;49:270-
96.
23. Harrison DE, Harrison DD, Haas JW. Structural
rehabilitation of the cervical spine. Evanston, WY:
Harrison CBP® Seminars, Inc., 2002.
Infertility J. Pediatric, Maternal & Family Health April 26, 2018 36
24. Harrison DE, Betz JW, Harrison DD, et al. CBP®
Structural Rehabilitation of the Lumbar Spine: Harrison
Chiropractic Biophysics® Seminars, Inc, 2007.
25. Moustafa IM, Diab AAM, Hegazy FA, Harrison DE.
Does rehabilitation of cervical lordosis influence sagittal
cervical spine flexion extension kinematics in cervical
spondylotic radiculopathy subjects? J Back
Musculoskelet Rehabil. 2017;30(4):937-941.
26. Moustafa IM, Diab AA, Taha S, Harrison DE. Addition
of a Sagittal Cervical Posture Corrective Orthotic Device
to a Multimodal Rehabilitation Program Improves Short-
and Long-Term Outcomes in Patients With Discogenic
Cervical Radiculopathy. Arch Phys Med Rehabil.
2016;97:2034-2044.
27. Moustafa IM, Diab AA, Harrison DE. The effect of
normalizing the sagittal cervical configuration on
dizziness, neck pain, and cervicocephalic kinesthetic
sensibility: a 1-year randomized controlled study. Eur J
Phys Rehabil Med. 2017;53(1):57-71.
28. Moustafa IM, Diab AAM, Harrison DE. Does
improvement towards a normal cervical sagittal
configuration aid in the management of lumbosacral
radiculopathy: A randomized controlled trial.
Proceedings from the 13th biennial congress of the World
Federation of Chiropractic, Athens, Greece, May 13-16,
2015, p138.
29. Diab AAM, Moustafa IM. The efficacy of lumbar
extension traction for sagittal alignment in mechanical
low back pain: A randomized trial. J of Back and
Musculoskeletal Rehabilitation 2013;26:213-20.
30. Moustafa IM, Diab AA. Extension traction treatment for
patients with discogenic lumbosacral radiculopathy: a
randomized controlled trial. Clinical Rehab 2012; 27(1):
51-62.
31. Diab AA, Moustafa IM. Lumbar lordosis rehabilitation
for pain and lumbar segmental motion in chronic
mechanical low back pain. J Manipulative Physiol Ther
2012; 35: 246-253.
32. Harrison DE, Cailliet R, Betz JW, Harrison DD, Colloca
CJ, Haas JW, Janik TJ, Holland B. A non-randomized
clinical control trial of Harrison mirror image methods
for correcting trunk list (lateral translations of the
thoracic cage) in patients with chronic low back pain.
Eur Spine J. 2005 Mar;14(2):155-62.
33. Harrison DE, Cailliet R, Betz J, et al. Conservative
methods for reducing lateral translation postures of the
head: A non-randomized clinical control trial. J Rehabil
Res Dev 2004;41(4):631-9.
34. Harrison DE, Harrison DD, Betz J, Colloca CJ, Janik TJ,
Holland B. Increasing the cervical lordosis with seated
combined extension-compression and transverse load
cervical traction with cervical manipulation:
Nonrandomized clinical control trial. JMPT
2003;26:139-51.
35. Harrison DE, Cailliet R, Harrison DD, Janik TJ, Holland
B. A new 3-point bending traction method for restoring
cervical lordosis and cervical manipulation: A
nonrandomized clinical controlled trial. Arch Phys Med
Rehab 2002;83:447-453.
36. Harrison DE, Cailliet R, Harrison DD, Janik TJ, Holland
B. Changes in sagittal lumbar configurations with a new
method of extension traction: Nonrandomized clinical
controlled trial. Arch Phys Med Rehab 2002; 83:1585-
1591.
37. Harrison DD, Jackson BL, Troyanovich SJ, Robertson
G, De George D, Barker WF. The efficacy of cervical
extension-compression traction combined with
diversified manipulation and drop table adjustments in
the rehabilitation of cervical lordosis: a pilot study. J
Manipulative Physiol Ther 1994;17:454-464.
38. Breig A. Biomechanics of the central nervous system.
Almqvist & Wiksell International, 1960.
39. Breig, A. Adverse mechanical tension in the central
nervous system. Relief by functional neurosurgery.
Almqvist & Wiksell International,1978.
40. Moustafa IM, Diab AAM, Taha S, Harrison D.
Demonstration of central conduction time and
neuroplastic changes after cervical lordosis rehabilitation
in asymptomatic subjects: A randomized, placebo-
controlled trial. J Chiropr Educ. 2017 Mar; 31(1): 2983.
37 J. Pediatric, Maternal & Family Health April 26, 2018 Infertility
Figure 1. Left: Lateral cervical radiograph. Patient has upper cervical hypolordosis and lower cervical
kyphosis. Right: AP lumbar radiograph. Patient has a left anatomical short leg and a left thoracic translation
posture. Green line represents normal alignment; red line represents patient.
Figure 2. Lateral full-spine radiograph. Patient has hypolordosis of the cervical and lumbar spine as well as
hypokyphosis of the thoracic spine.
Infertility J. Pediatric, Maternal & Family Health April 26, 2018 38
Figure 3. Full-spine traction set-up. Patient received cervical and lumbar extension traction with the lower ribs
strapped down to accentuate the thoracic kyphosis.
39 J. Pediatric, Maternal & Family Health April 26, 2018 Infertility
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Article
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Thirty lateral cervical radiographs were digitized twice by three examiners to compare reliability of the Cobb and posterior tangent methods. To determine the reliability of the Cobb and Harrison posterior tangent methods and to compare and contrast these two methods. Cobb's method is commonly used on both anteroposterior and lateral radiographs, whereas the posterior tangent method is not widely used. A blind, repeated-measures design was used. Thirty lateral cervical radiographs were digitized twice by each of three examiners. To evaluate reliability of determining global and segmental alignment, vertebral bodies of C1-T1 were digitized. Angles created were two global two-line Cobb angles (C1-C7 and C2-C7), segmental Cobb angles from C2 to C7, and posterior tangents drawn at each posterior vertebral body margin. Cobb's method and the posterior tangent method are compared and contrasted with these data. Of 34 intraclass and interclass correlation coefficients, 28 were in the high range (>0.7), and 6 were in the good range (0.6-0.7). The Cobb method at C1-C7 overestimated the cervical curvature (-54 degrees ) and, at C2-C7 it underestimated the cervical curve (-17 degrees ), whereas the posterior tangents were the slopes along the curve (-26 degrees from C2 to C7). The inferior vertebral endplates and posterior body margins did not meet at 90 degrees (C2: 105 degrees +/- 5.2 degrees, C3: 99.7 degrees +/- 5.2 degrees, C4: 99.9 degrees +/- 5.8 degrees, C5: 96.1 degrees +/- 4.5 degrees, C6: 97.0 degrees +/- 3.8 degrees, C7: 95.4 degrees +/- 4.1 degrees ), which caused the segmental Cobb angles to underestimate lordosis at C2-C3, C4-C5, and C6-C7. Although both methods are reliable with the majority of correlation coefficients in the high range (ICC > 0.7), from the literature, the posterior tangent method has a smaller standard error of measurement than four-line Cobb methods. Global Cobb angles compare only the ends of the cervical curve and cannot delineate what happens to the curve internally. Posterior tangents are the slopes along the curve and can provide an analysis of any buckled areas of the cervical curve. The posterior tangent method is part of an engineering analysis (first derivative) and more accurately depicts cervical curvature than the Cobb method.
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This book deals with a new field of neurology, namely the investigation into tension in txhe central nervous system generated by external or internal dynamic forces acting on the nervous tissue. The resulting deformation of the nerve cells and axons is ultimately responsible for familiar neurological symptoms. The forces in question may have their origin in a variety of pathological conditions and mechanical situations in different parts of the central nervous system and they therefore give rise to specific functional disorders. This chain of cause and effect has been analysed by the author on the basis of simple mechanical principles and the insight gained from this analysis has pointed to methods of eliminating the adverse tension and hence the deformation of tissue elements and the resulting neurological symptoms. Details of the mechanical analysis and the principles underlying the therapeutic methods aimed at the relaxation of the distended tissues are well illustrated with diagrams, photomicrographs and radiographs.
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The purpose of this study was to investigate the effects of lumbar extension traction with stretching and infrared radiation compared with stretching and infrared radiation alone on the lumbar curve, pain, and intervertebral movements of patients with chronic mechanical low back pain (CMLBP). This randomized clinical study with 3-month follow-up was completed at the Cairo University research laboratory. Eighty patients (age ranged from 40 to 50 years) with CMLBP and a hypolordotic lumbar spine were randomly assigned to traction or a comparison group. The comparison group (n = 40) received stretching exercises and infrared radiation, whereas the traction group (n = 40) received lumbar extension traction in addition to stretching exercises and infrared radiation. The absolute rotatory angle, intervertebral movements, and visual analog scale were measured for all patients at 3 intervals. The results revealed a statistically significant difference between the groups at 2 follow-up time points compared with the baseline values for the translational and sagittal rotational movements of L3-L4, L4-L5, L5-S1, and L2-L3 (posttreatment) and absolute rotatory angle (P < .01). There were no statistically significant changes in pain (P = .1 and .3) and L1-L2 (P = .072 and .076) or L2-L3 (at follow-up; P = .3), and there was no significant difference between all the previous variables adjusted to the groups' baseline outcome interaction (P > .01). Lumbar extension traction with stretching exercises and infrared radiation was superior to stretching exercises and infrared radiation alone for improving the sagittal lumbar curve, pain, and intervertebral movement in CMLBP.
Article
To experimentally investigate the effect of cervical extension-compression traction combined with diversified chiropractic manipulation and drop table adjusting in establishing or increasing cervical lordosis. Blinded, before and after trial with pre- and postlateral cervical radiographic measurement. Primary care private chiropractic clinic in Saugus, MA. A) Control group--convenience sample who had no health care for 10-14 wk, 30 persons. B) Treatment group 1, nonrandomized control trial, 35 persons, whose pre- and postlateral cervical radiographs were taken 10-14 wk apart and whose radiographs clearly depicted C1 through C7. C) Treatment group 2, nonrandomized control trial, 30 persons, whose pre- and postlateral cervical radiographs were taken 10-14 wk apart and whose radiographs clearly depicted C1 through C7. Treatment group 1: diversified spinal manipulation, drop table adjustments and cervical extension-compression traction five times per week for 10-14 wk (12 wk +/- 2). Treatment group 2: diversified spinal manipulation and drop table adjustments five times per week for 10-14 wk (12 wk +/- 2). Anterior head translation millimeters, C2 to C7 absolute rotation angle, angle of C1 to horizontal (atlas plane angle), five relative rotation angles (C2-3, C3-4, C4-5, C5-6, C6-7) and qualitative classification of lordotic configuration. No statistically significant changes existed between the pre- and posttests for the control group except in the C6-7 relative rotation angle. In the treatment group 1, statistically significant differences were found in all X-ray markings. Twenty-nine of 35 members have a lordosis after treatment compared to 11 of 35 before treatment. The C2 to C7 angle changed an average 13.2 degrees, C1 to horizontal changed an average 9.8 degrees, the anterior head translation reduced an average of 6.8 mm, the average relative rotation angle changed: C2-3: 3.1, C3-4: 5.5, C4-5: 4.80, C5-6: 2.7 and C6-7: 1.1. In the treatment group 2, no statistically significant changes existed between the pre- and posttests except atlas angulation to horizontal which increased an average of 3.0 degrees. A transformation to a lordotic configuration or increase in lordotic configuration occurred and was measured in the majority of treatment group 1 subjects, while no change in the control group and essentially no change in treatment group 2 was measured. Extension-compression traction combined with diversified chiropractic manipulation and drop table adjusting procedures may improve or partially reestablish the cervical lordosis in 10-14 wk of daily care.
Article
Clinical significance of lumbar lordosis has not been agreed on. Our purpose is to compare lordotic measurements of normal and pain subjects and to test the validity of a new anthropometric model of lumbar curvatures. Digitized radiographic points (body corners) from standing lateral lumbar radiographs were modeled with ellipses in a least-squares method and were used to create segmental angles, a global angle at L1-L5, a Cobb angle from T12 to S1, Ferguson's sacral base angle, and an angle of pelvic tilt. Fifty normal subjects were matched in age, sex, weight, and height with 50 acute pain subjects, 50 chronic pain subjects, and 24 pain subjects with radiographic abnormalities. Of 11 angles, 2 distances, and 2 ratios, statistical analysis was significantly different across groups for 12 of these measurements, with the alternative hypotheses accepted for the other 3 measurements. The lordosis of both normal and low back pain subjects can be successfully modeled with a portion (approximately 86 degrees) of an ellipse, but with different major and minor axis ratios. The normal group's average elliptic lordosis has the smallest least-squares error, approximately 1 mm per digitized point, with (minor axis)/(major axis) ratio = 0.39, L1-L5 global angle = 40 degrees, and Cobb angle = 65 degrees. The chronic and radiographic abnormalities pain groups have an elongated ellipse with hypolordosis, reduced L1-L5 global angle = 29.6-35 degrees, reduced Cobb angle = 57-58 degrees, and elliptic axis ratio = 0.27-0.30. The acute pain group is hyperlordotic with the largest L1-L5 global angle, largest Cobb angle = 70 degrees, largest Ferguson's angle, and largest pelvic tilt angle.