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Clinical characteristics and kinesitherapy treatment of congenital torticollis muscular

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Objective: Torticollis is a deformity characterized by the lateral flexion of the head to the arm on the side of the localization of deformity and its rotation on the opposite side. The aim of this paper is to identify the clinical characteristics that have an impact on the progression of the congenital muscular cramping, as well as to show the role of kinesitherapy in the treatment of torticollis.Methods: The research was conducted in the “Therapy” - Physical Therapy Clinic in Pristina, in the 2-year period since February 2014 until 2016. The total number of infants diagnosed with torticollis is 160, ranging from 0 to 9 months. At the beginning of the research, the examinations of all infants were performed, all the necessary tests, measurements, and motor functions. Afterward, they were rehabilitated for 3 consecutive weeks with 5 sessions per week, a total of 15 sessions for each. After the rehabilitation was completed, over again, the same tests were made as it was done in the beginning. Questionnaires were completed on the first and last visit for all infants.Results: In the first visit of the infants’ examination, there was no significant difference between the groups (Chi-test=0.96, p=0.1), whereas in the second examination, after 15 rehabilitation sessions, there was a significant difference in improvement of all the treated groups with kinesiotherapy. Significant result was achieved in mobility where at the beginning of the treatment, there was a very large limitation of neck mobility (different mean = −31.0±10.0.95% CI: 33.7-−28.2, p<0.001). A small limitation of mobility remained only among some third-degree infants in the 6-9 month age group because of the time appearance for physical treatment was delayed (different mean = −27.8±12.6, 95%, CI: 31.2-−24.4, p<0.001).Conclusion: From the results of our research on kinesiotherapy with infant toddlers with torticollis, we conclude that kinesitherapy has a primary and very successful effect on the treatment of babies with muscular torticollis.
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Vol 10, Issue 8, 2017
Online - 2455-3891
Print - 0974-2441
CLINICAL CHARACTERISTICS AND KINESITHERAPY TREATMENT OF CONGENITAL
TORTICOLLIS MUSCULAR
ZHERALLDIN DURGUTI, ARDIANA MURTEZANI, EQREM GARA*, TEUTA DURGUTI
Physical Medicine and Rehabilitation Clinic, University of Pristina, Kosovo. Email: eqremgara3@gmail.com
Received: 20 May 2017, Revised and Accepted: 29 June 2017
ABSTRACT
Objective: Torticollis is a deformity characterized by the lateral flexion of the head to the arm on the side of the localization of deformity and its
rotation on the opposite side. The aim of this paper is to identify the clinical characteristics that have an impact on the progression of the congenital
muscular cramping, as well as to show the role of kinesitherapy in the treatment of torticollis.
Methods: The research was conducted in the “Therapy” - Physical Therapy Clinic in Pristina, in the 2-year period since February 2014 until 2016.
The total number of infants diagnosed with torticollis is 160, ranging from 0 to 9 months. At the beginning of the research, the examinations of all
infants were performed, all the necessary tests, measurements, and motor functions. Afterward, they were rehabilitated for 3 consecutive weeks with
5 sessions per week, a total of 15 sessions for each. After the rehabilitation was completed, over again, the same tests were made as it was done in the
beginning. Questionnaires were completed on the first and last visit for all infants.
Results: In the first visit of the infants’ examination, there was no significant difference between the groups (Chi-test=0.96, p=0.1), whereas in the
second examination, after 15 rehabilitation sessions, there was a significant difference in improvement of all the treated groups with kinesiotherapy.
Significant result was achieved in mobility where at the beginning of the treatment, there was a very large limitation of neck mobility (different
mean = −31.0±10.0.95% CI: 33.7-−28.2, p<0.001). A small limitation of mobility remained only among some third-degree infants in the 6-9 month age
group because of the time appearance for physical treatment was delayed (different mean = −27.8±12.6, 95%, CI: 31.2-−24.4, p<0.001).
Conclusion: From the results of our research on kinesiotherapy with infant toddlers with torticollis, we conclude that kinesitherapy has a primary
and very successful effect on the treatment of babies with muscular torticollis.
Keywords: Torticollis, Kinesitherapy, Infants, Clinical features, Neck mobility.
INTRODUCTION
Torticollis is a deformity characterized by the lateral flexion of the
head to the arm on the side of the localization of the deformity and
its rotation on the opposite side [1]. Congenital muscular torticollis
by the frequency is the third deformity in the children’s orthopedics,
following the developmental disorder of the skeletal and congenital
equinox [2]. It is a unilateral consequence of the sternocleidomastoid
muscle contractility (MSCM) [3]. Observation and physical therapy,
with or without ortho, is in the most of the cases an effective treatment,
especially if it is done within the first year of life [4]. Usually, it is
associated with facial and head asymmetry and with the amplitude
movement limitation of the cervical pillar [5].
Regarding the etiology of torticollis is still unclear, but many different
authors think that the presentation of congenital musculoskeletal
neoplasm in babies has to do with polyethiology factors, such as fetal
position in the uterus, limited space inside the uterus, rotation of
the baby’s head during baby birth, positioning, and manipulation of
the baby after birth, and in some cases, genetic factors may also be
affected [6,7].
Diagnosis is done on the basis of a clinical examination of the cervical
region, where the cervical axis radiography is necessary to exclude
bone modifications, as well as examining otorhinolaryngology and
ophthalmology are necessary too [8,9]. Meanwhile, the clinical signs
of torticollis are characterized based on the position of babies head.
The head of the baby is humble on the sick side, there is movement
restriction on that side, and muscle tone is increased, while MSCM is
short and strong [10].
For the physical treatment of torticollis, these procedures are applied:
Thermotherapy, electrotherapy, kinesitherapy, and work therapy,
which are functional orthopedic aids [11,12]. The primary role in
treatment is kinesitherapy, which is used to prolong MSCM extension
and strengthening of other structures around the neck, as well as
eliminating the muscular contraction [13].
In most of the cases, the problems of infants with torticollis with
the application of physical therapy are cured. In rare cases, surgical
intervention is needed, which it comes due to the non-presentation
of the infant’s baby with torticollis for physical treatment because it is
much more effective to treat infants when it begins in the early days of
the baby’s birth [14,15].
The main purpose of this paper is to identify the clinical characteristics
that have an impact on the progression of congenital muscular cramping
and to show the role of the kinesitherapy in the infant’s cramping/
torticollis treatment.
METHODS
Due to the realization of this prospective paperwork, partial research
methods were conducted through a questionnaire obtained by Anna
Marie Ohmman PT.MSC.PHD at Queen Silvia Children’s Hospital
“Questionnaire for torticollis in infants,” which includes general patient
data, patient examination, as well as the achieved results at the end of
the treatment [16].
The research was conducted in the “Therapy”- Physical Therapy Clinic
in Pristina in the 2-year period since February 2014 until 2016. The
© 2017 The Authors. Published by Innovare Academic Sciences Pvt Ltd. This is an open access article under the CC BY license (http://creativecommons.
org/licenses/by/4. 0/) DOI: http://dx.doi.org/10.22159/ajpcr.2017.v10i8.20085
Research Article
367
Asian J Pharm Clin Res, Vol 10, Issue 8, 2017, 366-369
Durguti et al.
total number of infants diagnosed with torticollis is 160, ranging from
0 to 9 months. The babies involved in the research were divided into
three groups by age and number of sessions applied. The first group
included 53 infants (33.13%), in the second group 52 infants (32.5%),
and the third group included 55 infants (34.38%).
At the beginning of the research, all of the infant’s examinations were
made, all the necessary tests, measurements, and motor function.
Afterward, they were rehabilitated for 3 consecutive weeks with
5 sessions per week, in total 15 sessions per each. After the rehabilitation
was completed, over again, the same tests were made as it was done
in the beginning. In the first and last visit, the questionnaires were
completed for all infants. All parents were informed and agreed on the
manner and the purpose of the research.
Throughout the clinical examination cervical spine mobility was
examined, cervical spine muscle force, the shape of head and face was
assessed and also the presence of concomitant anomalies.
The criteria for introducing infants were between 0 and 9 months, a
diagnosis with torticollis set by the pediatrician, orthopedics, and
physiatrist, as well as the infants with good health in general, verified
with anamnesis and clinical examination. Whereas those infants who
have not been treated in time have been diagnosed with torticollis as
a result of other pathologies who have been surgically treated - the
tenotomy is not included in the research.
The presentation of data is done through tables and graphs while data
processing is done with the SPSS program. As regarded to statistical
parameters structure index was calculated, arithmetic average, standard
deviation (SD), minimal and maximal values. The data were tested by
t-test and the verification of the tests was done for the confidence or
credibility level 95% and 99%, respectively, p<0.05 and p<0.01.
RESULTS
Table 1 lists the demographic data and the clinical features of 160 infants
involved in the research. There was no significant difference according
to the treated groups, which means that the three of the groups were
the same for the number included in the study (Chi-test=0.96, p=0.1).
Out of 160 infants, 87 (56%) were girls while 73 (44%) were boys with
an imprecise distinction p=0.27. The average weight of babies in the
study was 3218.3 g. Of the 160 examined babies, 95 (59.4%) are of
natural origin while 65 (40.6%) are of caesarean origin.
The largest number of the cases were at the first-born child (74 or 46.3%),
followed by second-born children (67 or 41.9%), and the lowest number
of cases were on the third child born in the order of 19 or 11.9%. On the
total number of babies, 93 or (58.1%) of the cases had facial asymmetry
while 67 (41.9%) had no facial asymmetry. From the 160 babies involved
in the paperwork, 94 babies or (58.8%) had regular head shape whereas
66 babies or (41.3%) had irregular head form. In 8 babies or (5%) of
them, there was present the tumefaction while in 152 or (95%) of cases,
we did not conclude the tumefact in the muscle region.
In Fig. 1 data on the other abnormal infants were reported, wherefrom
118, out of the total number of babies (73.8%) have no other
accompanying abnormalities; 13 or (8.1%) cases had subluxatio coxae,
12 cases or (7.5%) had brachial plexus injury, and 11 of the cases or
(6.9%) had coxae dysplasia.
Table 2 shows the data for the average improvement of lateral
anesthesia where we reached the highest level in the 0-3 months of
the infants in groups(different mean = −31.0±10.0, 95%, CI: 33.7 up
to - 28.2, p<0.001), and then, in the group ages 3.1-6 months (different
mean = −29.3±8.7, 95%, CI: 31.7-−26.9, p<0.001) whereas the lowest
improvement in the group age is 6.1-9 months (different mean =
−27.8±12.6, 95%, CI: 31.2-−24.4, p<0.001).
Table 3 shows that the results of the examinations that were made
at the end of the treatment according to the number of sessions
applied. The first group of the (infants from 0 to 3 months) was
needed only 15 sessions for their full treatment because the timing
of their appearance in the therapy was earlier, so the result was
better and faster. The second group (infants from 3 to 6 months)
needed 30 therapeutic sessions. The third group (babies aged from
6 to 9 months) needed 45 therapeutic sessions for achieving normal
amplitude of the neck mobility because of the appearance for physical
treatment was delayed, so the treatment lasted longer than to the first
and second group.
Table 1: Demographic data and clinical characteristics of the
infants
Baseline demographic and clinical
characteristics
Total n=160 (%)
Gender
Girls 87 (54.38)
Boys 73 (45.63)
Body weight
2500-3000 53 (33.13)
3001-3500 82 (51.25)
3501-4000 16 (10.00)
4001-4500 9 (5.63)
Way of birth
Natural birth 95 (59.40)
Caesarean birth 65 (40.60)
Line of the infant born
First 74 (46.30)
Second 67 (41.90)
Third 19 (11.90)
Facial symmetry
Asymmetric 93 (58.10)
Symmetric 67 (41.90)
Shape of head
Regular 94 (58.80)
Irregular 66 (41.30)
Tumefaction
Yes 8 (5.00)
No 152 (95.00)
Table 2: Improvement of lateral anion by comparative groups
Age
group
Mean±SD SE 95% CI
Before After Different
1-3 m 58.0±9.7 88.9±3.0 −31.0±10.0 1.4 −33.7-−28.2
3.1-6 m 60.0±9.7 89.3±2.4 −29.3±8.7 1.2 −31.7-−26.9
6.1-9 m 62.2±12.6 90.0±0.0 −27.8±12.6 1.7 −31.2-−24.4
Total 60.1±10.9 89.4±2.2 −29.3±10.6 0.8 −31.0-−27.7
SD: Standard deviation
Fig. 1: Concomitant abnormalities among infants with torticollis
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Durguti et al.
DISCCUSION
Traumas during childbirth are the risk factors for the appearance of
torticollis. As a consequence of the trauma, it comes to the tearing or
prolongation of the neck muscles, especially when the baby’s head
is born slowly or very soon, or when the baby’s head is snatched by
force or violently, or when “pelvic” gets out first then the head. In these
cases, it comes to the tearing or breakdown of the muscular fibers as a
cause of excessive prolongation, which is not immediately noticeable.
Consequences are hematomas within the MSCM that it is formed in the
third week of the baby’s birth that it can be seen when the baby’s neck
palpitates [17,18].
Of the total number of infants 160, the largest number belongs to the
age group 0-3 months. As far as gender is concerned, there are 87 cases
or (56.0%) with female infants attacked by torticollis. As far as it
concerns to the number of births, the largest number belongs to the
infants born at the first birth, with 40 cases or (47.6%).
The earliest start of kinesitherapy treatment in the cases diagnosed
with torticollis gives better results in the degree of neck’s mobility, and
a shorter physiotherapeutic treatment is required to achieve normal
baby’s cervical mobility [19]. After the application of the kinesitherapy,
we achieved high results in AEL growth, which were significantly better
in the group of age from 0 to 3 months. From the total number, at 152
infants or (90.5%) after the treatment, we achieved full amplitude of
mobility.
In our study of the total number of examiners, 36 cases or (22.5%) had
other associated anomalies, such as 13 or (8.1%) subluxatio coxae,
12 cases or (7.5%) brachial plexus injury, and 11 cases or (6.9%)
dislocation coxae. Our data correspond to the data of a work done in
1086 babies with torticollis where it was noted that besides cotyledons;
there was also a high incidence of podalic presentation (19.5%), difficult
birth or (56%), and stomach displacement (6.81%). Furthermore, the
limitation of the passive neck rotation correlated with the craniofacial
asymmetry and irregular shape of the head [20]. From our data, we
have come to the conclusion that a small limitation of mobility has
left only on some third group infants in the age of groups from 6 to
9 months because the appearance of time for physical treatment has
been delayed.
This is also noted in a study involving one hundred and one child
(mean age = 4 months) who were diagnosed with congestive muscular
twitching and referred to the physical therapy in the Children’s Hospital
in the British Columbia (Vancouver, British Columbia, Canada), before
they fulfill 2 years old.
Full recovery (full passive motion angle) is achieved for all the children
except one. The average duration of treatment was 4.7 months. There
was a correlation between the severity of the restriction and the
duration of the treatment (r = 0.31) [4]. Similar data were also obtained
in a prospective study of 45 infants (26 boys, 19 girls) with congenital
muscle cramps; their average age at the beginning of the therapy was
38.6 days or (15-120 days). The average duration of the treatment
was found to be 3.2~1.3 months. All of the patients were treated with
intensive, prolonged prophylaxis protocol (with 100% success). No
case was treated surgically. In early-treated muscular-infant babies,
there is no room for surgical treatment. This group of patients has been
successfully treated using an intensive protocol of passive exercises
extension [1].
Clinical characteristics of our patients coincide with those of other
works. For example, the patients included in this study were 81 boys
and 89 girls, younger than 24 months, who had congenital torticollis.
The average age at the time of the diagnosis was 4 months, 54.1% had
the left side of the affected neck, over 90% had an irregular shape of the
head, and 2.4% had difficulty eating due to the disorder. Plagiocephaly
was present in 63.6% of the patients.
Neck tumefaction was present in 18.2% of subjects and facial
asymmetry in 15.9%. Passive movements were the initial treatment
recommended for 65.3% of the patients. Most of the children achieve
a total improvement in symptoms. Nearly 85.5% have achieved total
improvement and 14.5% have achieved partial improvement or long-
term abnormalities [21].
In our study, kinesitherapy, respectively, passive exercises have been
applied to all infants and a large number of them have achieved
a successfully full recovery. This coincides with the data from the
literature. A total of 311 infants were treated consecutively for
congenital torticollis during an 8-year period since 1999 until 2003
at the Clinic of Pediatric Neurology at Istanbul’s Faculty of Medicine.
Istanbul University, Turkey was revised in a retrospectively manner.
The average age at diagnosis period was 2.3 months. The included
patients in this study were 138 boys and 173 girls. Passive movements
were recommended with the initial treatment for all the patients.
Nearly 95% have achieved total improvement and 5% have achieved
partial improvement [22].
We conclude that most of the babies born with muscular torticollis reach
the full/complete neck movement. The success rate of conservative
treatment it is depended largely on the age of infants when they start
with ultrasonography exercises and findings [23]. Furthermore, in a
retrospective study of 277 infants with torticollis muscular congenital,
90.6% of the cases were of average level. Hip dysplasia was directly
related with the worst cases of torticollis (10.5%). Within 12 months,
torticollis had been conservatively cured of nearly on approximately
70% of babies regardless of the severity. Tenotomies were realized or
performed in only ten children, eight of whom were first introduced after
the age of 12 months. The long-term effects were light and consisted of
craniofacial asymmetry, temporary head bend, and mild scoliosis [24].
However, a wide and long-term of research would give a better
and clear insight to the effect of treating torticollis infants with the
kinesitherapy method. Special researches should be conducted on the
role of kinesitherapy and other physical methods with larger samples,
with randomized, double-blind and controlled or checked groups.
In this way, stratification of the patients in the treatment groups
according to the disease, weight, gender, and age would be enabled.
Various and diverse researches are needed because all of this cannot
be achieved within a single research. However, based on our results
and the literature of published work so far in internationally reviewed
journals, there is a lot of evidence that supports the recommendation of
the kinesitherapy usage for a period of 3 weeks (a period of time that
is needed in order for the effect to be shown) because it will have an
impact on the effect release of AEL, to the release the muscle of spasms
and the improvement of muscle function.
CONCLUSIONS
From the results of our research, we conclude that kinesiotherapy has
a primary and very successful effect on the treatment of the infants
with torticollis. Kinesitherapy has been shown to be effective in MSCM
extension, growth of the AEL on the neck mobility, and improvement
of muscle function. The results of this study will enable therapists to
better predict the duration of treatment based on early onset of the
physical therapy.
Table 3: Number and percentage of infants at the end of the
treatment according to the number of applied sessions
Number sessions Total (%)
45 63 (39.4)
30 44 (27.5)
15 53 (33.1)
Total 160 (100.0)
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Asian J Pharm Clin Res, Vol 10, Issue 8, 2017, 366-369
Durguti et al.
ACKNOWLEDGMENTS
We would like to thank all the infants who participated in this study
and all their parents who without hesitation helped us by answering
the questionnaire.
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Background and study aim: Torticollis is the postural deformity of head and neck. Congenital Muscular Torticollis (CMT) is a postural deformity of head and neck detected at birth or shortly after birth, primarily resulting from unilateral shortening of Sternocleidomastoid muscle (SCM), In neonates and infants, patient may cure conservatively by physiotherapy but surgery is the treatment of choice for children and adolescents. Here we show our experience regarding management of congenital muscular torticollis with physiotherapy. Patients and Methods: This is an observational descriptive study. Verbal consent from parents was taken. Patients of congenital muscular torticollis with other disease or other congenital anomaly were excluded from study. Twenty patients of congenital muscular torticollis were treated. The cases were enrolled between Nov' 2005 to Oct' 2008 in Bangabandhu Sheikh Mujib Medical University, Gonosasthaya Somaj Vittik Medical College Hospital, ZH Sikder Women's Medical College Hospital, Shaheed Shurawardy Medical College Hospital. Neonates and infants were treated conservatively with physiotherapy and non responsive cases were referred for surgery. Results: Patients age range from 5 days to 1 year of which eleven were females and nine were males. Sternocleidomastoid muscle (SCM) was shortened in all cases (12 on right side and 8 on left side). Of 20 patients 6 neonates, rest 14 infants within 1 year age. Out of 20 neonates and infants 17 were cured conservatively with physiotherapy and rest 3 were referred for surgery. Conclusion: Most of the patient of congenital muscular torticollis can be treated conservatively during infancy. DOI: http://dx.doi.org/10.3329/jssmc.v1i2.12157 Journal of Shaheed Suhrawardy Medical College Vol.1, No.2, December 2009 p.2-5
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Although the success of conservative management of congenital muscular torticollis has been well documented, relatively little is known about the determinants of this outcome, such as treatment duration and exercise frequency. The aim of the present study was to define factors related to treatment duration, to compare different frequencies and intensities of home treatment programs and their effect on the speed of recovery. The present study was a prospective study of 45 infants (26 male, 19 female) with congenital muscular torticollis referred to the pediatric surgical outpatient during a I year period. Following a standardized initial assessment, parents were taught our intensive home treatment protocol, consisting of passive stretching exercises repeated every 3 h. The mean age at initial assessment was 38.6 days (range 15-120 days). Mean treatment duration was found to be 3.2 +/- 1.3 months. All patients were treated by use of our intensive protocol of passive stretching exercises (100% success). No surgery was necessary. In patients with early treated congenital muscular torticollis, there is no place for surgical treatment. This group of patients can be successfully treated using an intensive protocol of passive stretching exercises. In addition, this treatment protocol has a very short treatment duration compared with other standardized protocols. A successful outcome depends primarily on good cooperation with the parents, especially in developing countries.
Article
The purpose of this review is to better understand the spectrum of disease in torticollis, which is the third most common pediatric orthopaedic diagnosis in childhood. Besides the benign muscular tightness of the sternocleidomastoid muscle leading to the classic head position, the differential diagnosis of the wry neck include sequelae to inflammatory, ocular, neurologic or orthopedic diseases. Patients present with a stiff and tilted neck, and therefore require a thorough and systematic work-up, including a complete physical and neurologic examination and cervical spine radiographs. Recent findings show that magnetic resonance imaging of the brain and neck is no longer considered cost-effective, or necessary, in congenital muscular torticollis. Observation and physical therapy, with or without bracing, is usually an effective treatment in most cases, especially if instituted within the first year of life. Botox has recently been shown to be an effective intermediate method of treatment for more resistant cases of congenital muscular torticollis. In those presenting after the age of 1 year, there is an increased rate of sternocleidomastoid muscle lengthening. The lengthening may improve the range of motion, but not necessarily the plagiocephaly, facial asymmetry, or cranial molding. It is important to differentiate muscular from nonmuscular torticollis. Congenital muscular torticollis is benign; missing a case of nonmuscular torticollis could be potentially life threatening.
Article
Infants with congenital muscular torticollis (CMT) often have an imbalance in muscle function in the lateral flexors of the neck, and the need for a valid and reliable assessment tool to determine muscle function in these muscles is essential. The lateral uprighting response is used to examine and to strengthen the sternocleidomastoid muscle. A Muscle Function Scale (MFS) has been refined and used for several years in a clinic for infants with CMT. The MFS describes an infant's muscle function in the lateral flexors of the neck through ordered categorical scores. The aim of this study was to find out if the muscle function scale (MFS) is valid and reliable. A panel of experts examined validity, and the kappa statistic and intraclass correlation coefficient were calculated for interrater and intrarater reliability. The MFS is found to be a valid tool to measure the muscle function of the lateral flexors of the neck in infants with CMT. The interrater and intrarater reliability is high for both novice and experienced physiotherapists (kappa>0.9; ICC>0.9).
Article
Recently it has been claimed that infants with congenital muscular torticollis (CMT) are at risk of a delay in early motor milestones. The aim of the present study was to investigate whether infants with CMT are indeed at risk in comparison with a control group of healthy infants. A second aim was to investigate whether the time spent in a prone position and plagiocephaly had any influence on motor development. Eighty-two infants with CMT (35 females and 47 males) were compared with 40 healthy infants (18 females and 22 males). Motor development was assessed with the Alberta Infant Motor scale (AIMS). Multiple regression showed that infants in the CMT group had a significantly lower AIMS score than the control group at 2 months (p=0.03) and 6 months of age (p=0.05). Infants who spent at least three occasions daily in a prone position when awake had significantly higher AIMS scores than infants who spent less time prone at 2 months (p=0.001), 6 months (p<0.001), and 10 months of age (p<0.001). The CMT group achieved early motor milestones significantly later than the control group until the age of 10 months, but the risk of delay seems to be more strongly associated with little or no time prone when awake than with CMT.
Article
Numerous risk factors have been associated with the development of deformational plagiocephaly, although the etiology remains unclear. Torticollis and sternocleidomastoid imbalance are implicated, but reporting is variable. The authors sought to determine the incidence of torticollis/sternocleidomastoid imbalance in deformational plagiocephaly. The authors prospectively evaluated 371 infants with cranial asymmetry between 2002 and 2003. Demographic data and medical history were recorded, and a questionnaire was administered. Cranial asymmetry and head rotation were assessed, and variables were statistically analyzed. Two-hundred two patients were included. Mean age at initial evaluation was 6.1 months (range, 3 to 16 months). Sixty-eight percent (n = 138) were male; 74 percent (n = 149) were flat on the right occiput; 14 percent (n = 28) were from a multiple pregnancy (24 twins, four triplets); 27 percent (n = 54) were premature; and four percent (n = 8) were syndromic. Ninety-three percent (n = 188) of parents did not notice flattening at birth. Ninety-two percent (n = 186) recalled a preferential head position after birth, and in 95 percent of these infants (n = 177 of 186) this improved with age. Only 24 percent (n = 48) of infants had been previously diagnosed or treated for torticollis. Mean cranial asymmetry was 12.5 mm (range, 8 to 25 mm). Ninety-seven percent (n = 195) of infants had head rotational asymmetry of 15 degrees or greater, with more rotation to the flat side. The mean rotational difference was 24 degrees (range 0 to 60; SD 9.8). There was a negative correlation (p = 0.004) between age and head rotational asymmetry (i.e., younger patients exhibited greater asymmetry) and a positive correlation (p = 0.043) between cranial asymmetry and head rotational asymmetry. The incidence of torticollis/sternocleidomastoid imbalance in deformational plagiocephaly is underreported. Because this condition improves rapidly during early infancy, the findings may be subtle and evidenced only by a history of preferential head rotation. The major cause of deformational plagiocephaly is limited head mobility in early infancy secondary to cervical imbalance.
Article
A retrospective review of 277 patients with congenital muscular torticollis seen between 1970 and 1982 was conducted. In 85 cases this was supplemented by questionnaires and recent photographs, permitting a two- to 13-year follow-up. The first visit for 81.6% of patients was before six months of age. All were enrolled in a specific physical therapy program at the time of the first visit, unless they presented with severe torticollis after 12 months of age. Torticollis was mild to moderately severe in 90.6% of cases. Sternomastoid fibrotic nodules were present in 38.6%, more frequently in the more severe cases. Hip dysplasia increased in direct relation to severity and occurred in 10.5% of cases. At 12 months the torticollis had been conservatively resolved in nearly 70% of patients regardless of severity and presence or absence of focal fibrosis. Tenotomies were indicated in only ten children, eight of whom had first been seen after 12 months of age. Long-term sequelae were mild and consisted of craniofacial asymmetry, intermittent head tilt, and mild scoliosis. Developmental asymmetry or high tone due to limited mobility in the cervical spine were noted in 25.3% of infants initially and tended to subside with appropriate therapy. However, 11.8% of patients with long-term follow-up showed persistent functional asymmetry of the involved body side despite mild or moderate severity, early diagnosis, and complete resolution of the torticollis. Long-term observations indicate that congenital torticollis rarely requires surgical treatment.
Article
Although the success of conservative management of congenital muscular torticollis has been well documented, relatively little is known about the determinants of response to treatment, such as treatment duration. The purpose of this study was to determine how factors such as severity of restriction of range of motion, age at initiation of treatment, and presence of a palpable intramuscular fibrotic sternocleidomastoid muscle mass affect treatment duration. One hundred one children (mean age = 4 months, SD = 2.87, range = 0.5-15.5) who were diagnosed with congenital muscular torticollis and referred to physical therapy at British Columbia's Children's Hospital (Vancouver, British Columbia, Canada) prior to 2 years of age were included in the study. Following a standardized initial assessment, parents were taught the home treatment program, which included passive stretches of the affected sternocleidomastoid muscle and strengthening exercises for the contralateral side, and positioning and handling skills. Evaluation at 2-week intervals included measurement of passive neck rotation and lateral flexion using an adapted standard goniometer. Treatment duration was defined as the time between initiation of treatment and achievement of full passive neck range of motion. Complete recovery (full passive range of motion) was achieved in all but one of the children in this sample. The mean treatment duration was 4.7 months (SD = 5.06, range = 1-36). Correlations were noted between severity of restriction and treatment duration (r = .31) as well as between presence of a mass and treatment duration (r = .26). Multiple regression analysis revealed that severity of restriction was the strongest predictor of treatment duration. The results of this study will make it possible for therapists to better predict treatment duration at the time of the initial assessment. By providing parents with more precise information about the length of treatment, parents may be more willing to adhere to the exercise program. [Emery C. The determinants of treatment duration for congenital muscular torticollis.