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== Results<br>  ==
== Results<br>  ==


The study was carried out using Pilates Teaser and Swimming exercises on the subjects with non-specific LBP. The total number of subjects was 30. All subjects were treated with both exercises.<br>LBP is more common in girls with increase age, and high and low level of activity during period of rapid growth literature published by Russell Jago.<br>In this study method of assessment was done through VAS and MODQ. It was used to assess overall function of back as its validity and reliability has already been established. MODQ includes all those activities where joint mechanisms of the lumber spine are relatively understood and therefor it is very easy to determine which task increase or decrease mechanical deformation.<br>The pain assessment was done by Visual Analogue Scale (VAS). In this study, subjects showed highly significant improvement in pain relief. This study also reveals that age is also a significant factor to pain relief.<br>MODQ was used to assess the improvement in all the functions. The subjects were assessed for the performance of daily living activities. After the interpretation it has been proved that subjects showed a significant improvement. This study also reveals that age is not a significant factor to the improvement in functions.<br>MODQ activities noted by this scale such as personal care, lifting, walking, sitting, standing, social life, sleeping, travelling and employment/ home making. All this showed a significant improvement in pre and post data except travelling which result as not significant to the interventions.<br>VAS and MODQ scores across baseline and post interventions showed a highly significant improvement statistically in their mean score.<br>When compare to gender interventions showed not significant result.<br>Improvement of pain and disability may also be due to improvement in strength and endurance of core musculature of lumbar spine. This helps decreasing in the stress and abdominal loads on the spine by demanding a proper Neuromuscular control and coordination which is essentials for maintenance of body mechanism and posture when it is required to carry a load and to perform common daily activities.<br>According to the study of RaminKordi et alon study Low Back Pain in Children and Adolescents: an Algorithmic Clinical Approach, and concluded that In children younger than 7 years and particularly in those younger than 3, as a rule, back pain should be alarming for a hidden underlying pathology until proven otherwise. Commonly LBP in children is non-specific and will be managed by simple conservative treatments in short term. However in some groups especially those involved in sport activities other reasons such as Spondylolysis and Spondylolisthesis need to be considered. The role of psychosocial factors in treatment of the children with back pain should never be forgotten particularly in teens with positive family history of anxiety14.
The objective of the study was to evaluate effectiveness of TT interventions in subjects with DS.<br>In this study the method of assessment was done through 10 Meter Walk Test. It was used to assess steps and distance cover by subjects in 10 Meter as its validity and reliability has already been established.<br>The results of the study showed highly significant improvement in steps and distance both with the mean increase of 151.17% in distance and in 72.24% steps. <br>The improvement of steps and distance in this study concurs with similar founding by Valentin-GudiolMet al47.<br>In this present study all subjects received Treadmill training for 6weeks. All subjects showed significant improvement in steps (p=.000) and distance (p=.000) and results were highly significant from pre to post interventions.<br>In the present early intervention study, several infants displayed adequate leg strength and postural control needed to walk and were able to walk well with assistance. Early intervention theory suggests that higher-intensity interventions may produce greater positive outcome.<br>Hip flexion was present throughout the gait cycle in DS, due to a forward pelvic tilt but with limited excursion. The reason for that may be linked to the anatomical configuration of their pelvic girdle: the so-called "Mongol pelvis" is characterized by a deeper acetabulum and a decrease in the cephalo-caudal diameter and acetabular angle.<br>In the frontal plane, hip excursion (HAA-ROM index) was lower in DS. This strategy, directly linked to the pelvis movement in the frontal plane (PO-ROM index), appears to produce together with obesity and hypotonia the typical external rotation of the hip during stance.<br>As for ankle kinematics, DS were characterized by an increased plantar flexion and reduced dorsal flexion throughout the gait cycle with a globally limited ankle range of motion.<br>The increased hip stiffness in DS we found is consistent with the literature and may represent, together with the anatomical configuration of the pelvic girdle, a compensatory mechanism for muscle weakness. Stiffness values closer to the normal range suggest a more "physiological" walking strategy in DS.<br>Several factors could have influenced the outcomes. Parenting in the early years of a child's life is hectic and stressful; this situation is magnified when a child in the family has a disability that requires a considerable amount of attention.<br>It is also possible that too many variables were manipulated in this exploratory attempt to gradually increase the intensity of treadmill training for infants with DS. Manipulating belt speed, and daily duration on the basis of individual infant performance might be too complex. To reduce complexity for parents and researchers, we advise that each condition be manipulated separately.<br>In considering which procedures to manipulate in the future in an effort to increase intensity, gradually increasing belt speed as an infant increases the frequency of stepping should be the first condition selected. As an infant begins to take more steps on the treadmill, belt speed is associated with more stepping, assuming that the speed is not too fast.<br>When first starting, the children were not walking consistently for 30 minutes. They would walk for 1-2 minutes, take rest, and try again until they could achieve the full 08 minutes. Speed of treadmill can be adjusted according to the capacity of child foot step on treadmill.


Karen Grimmer et al, also supported the prevalence of LBP in adolescent. In their study, a longitudinal study of LBP in Australian adolescent with an aim to track reports of LBP in adolescent each year over a five-year period (13-17 years). A significant increasing prevalence of LBP was reported for girls and boys. The odds of girls reporting in the final year study compared with the first year was 4.4 (95%) for boys 1.6(95%). New cases of girls LBP decreased consistently over the study (90% in 2000, 46.1 in 2001, 42.1 in 2002, and 33% in 2003). New boys cases decreased in second and third year (85% in 2000, 45% in 2001) then increased (45.8% in 2002, 63.6% in 2003)48.
Thayse L.M. Rodenbusch(2013), did a study on Effects of treadmill inclination on the gait of children with Down syndrome and results showed that children with DS presented changes in spatio-temporal variables (reduced cadence and increased cycle time and swing time) and in angular variables (increased hip, knee and ankle angles at initial contact; increased maximum hip flexion and maximum stance dorsi flexion; and reduced plantar flexion at pre-swing)41.<br>Valentin-Gudiol M, Mattern-Baxter K, Girabent-Farrés M, Bagur-Calafat C, Hadders-Algra M, Angulo-Barroso RM (2013), studied on Delayed motor development may occur in children with Down syndrome, cerebral palsy or children born preterm, which in turn may limit the child's opportunities to explore the environment. Neurophysiologic and early intervention literature suggests that task-specific training facilitates motor development. Treadmill intervention is a good example of loco-motor task-specific training. Treadmill interventions with partial body weight support in children under six years of age at risk of neuro-motor delay: a report of a Cochrane systematic review and concluded that the available evidence indicates that treadmill intervention may accelerate the development of independent walking in children with Down syndrome43.<br>Mattern-Baxter K et al (2011) did their study on Treadmill interventions with partial body weight support in children under six years of age at risk of neuro-motor delay with 139 subjects and their result suggested that treadmill intervention could lead to earlier onset of independent walking when compared to no treadmill intervention. The available evidence indicates that treadmill intervention may accelerate the development of independent walking in children with Down Syndrome48.<br><br>
 
Jones MA et al suggested about higher prevalence of LBP in school going children. They conducted a school based survey of recurrent non-specific LBP to estimate the prevalence and consequences in children from northwest England. A cross section sample of 500 (males-251, females-249) aged between 10-16 years participated in the study. They reported that the average lifetime prevalence of LBP was 40.2%44.
 
 
 
Pilates is a technique use to improve muscle strength and endurance as well as flexibility and to improve posture and balance.<br>The study suggested that Pilates exercise have shown significant improvement in non-specific LBP in adult, but the effectiveness of this treatment protocol in the adolescent population is still unknown. But there is lack of evidence suggesting effectiveness of Pilates in adolescent with LBP, so there is a need to find out the effectiveness of Pilates in adolescent with LBP.<br>EDWIN CHOON, et al (2011) supported the effects and usefulness of Pilates in LBP. They did a meta- analysis on effects of Pilates-Based Exercises on Pain and Disability in Individuals with Persistent Nonspecific Low Back Pain and they found Pilates-based exercises are superior to minimal intervention for pain relief. This is an exercise to reduce pain and disability for patients with persistent nonspecific low back pain.Pilates exercises are effective than minimal intervention or other exercise interventions to reduce disability related to chronic low back pain59.
 
Pilates also effective to improve flexibility and stability.SUREEPORN PHROMPAET et al (2011) studied on Effects of Pilates Training on lumbo-Pelvic Stability and Flexibility and their result suggested that Pilates can be used as an adjunctive exercise program to improve flexibility, enhance control-mobility of trunk and pelvic segments. They also suggested that The results of this study indicate the specificity of Pilate-based exercise as an appropriate volume to contribute to physiological benefits which occur after 4 weeks of training as follows:<br>1. Enhances lumbo-pelvic stability<br>2. Improves flexibility of lower back and legs<br> It may also help in preventing and attenuating the injury and dysfunction of musculoskeletal system18.<br>This study supports that Pilates can be used to enhance lumbo-pelvis stability as well as flexibility.<br>Pilates also improve strengthening of core muscles and helpful in activation of core muscles. Susan Sorosky recommended Pilates method would be beneficial for patients with LBP because it improves absolute core strength and moreover encourages proper activation patterns of core musculature60.<br>According to Lim et al (2011) Pilates-based exercise is superior to minimal intervention for pain. Pilates whether it is Mat or Equipment based, both are effective and beneficial in LBP.
 
The results of this study also showed highly significant values towards pain (VAS) and quality of life (MODQ).<br>The finding of this study is similar to the various studies done on Pilates in LBP on adolescent, that Pilates is superior to minimal intervention for pain. It is also improve muscle endurance, posture, balance, stability, and also facilitate breathing pattern.<br>


== Limitations/Discussion<br>  ==
== Limitations/Discussion<br>  ==

Revision as of 10:34, 7 October 2016

Use this template for[edit source]

Studies in 30 subjects which are involved in a trial investigating the effect of an intervention.

Title [edit source]

A STUDY TO CHECK EFFICACY OF TREADMILL INTERVENTION ON IMPROVING WALKING AMONG CHILDREN WITH DOWN SYNDROME”

Keywords [edit source]

TREADMILL, DOWN SYNDROME, WALKING

Word count <11000[edit source]

<11000

Author/s 
[edit source]

Dr. Bhawna


Ethical approval- [edit source]

This research as done by me Ms. Bhawna (MPTpeadiatrics) In Partial Fulfillment of the Requirement for the Degree of MASTER OF PHYSIOTHERAPY [M.P.T] under RGUHS Karnataka.

Abstract[edit source]

The study sought to evaluate the impact of Treadmill interventions to improve walking among Down syndrome subjects.
The study involved 30 patients with DS in the age group of 2-7 years fulfilling the inclusion criteria were selected during convenient sampling methods. Following their inclusion a consent form was obtain from each of them. The results were assessed by 10 Meter Walk Test. Tests were performed before and after completion of study. The study was conducted over period of 9 months.

Result:
The results showed highly significant improvement on walking in children with DS.

Background
[edit source]

Down syndrome (DS) is a genetic condition in which a person has 47 chromosomes instead of the usual 46.Down syndrome occurs when there is an extra copy of chromosome 21.The form of DS is called Trisomy 21.The extra chromosome causes problems with the way the body and brain develop.

Common clinical features in DS are decreased muscle tone, Eyes that have an upward slant, oblique fissures, epicanthic skin folds on the inner corner, and white spots on the iris,Small stature and short neck, Flat nasal bridge Single, deep creases across the center of the palm, Protruding tongue, Large space between large and second toe, A single flexion furrow of the fifth finger.

Objectives
[edit source]

1) To find out the effects of TT on improving walking among children with DS.
2) To study the effect of TT in children with DS for improving the number of steps taken.


Methods[edit source]

Experimental study design (Pre test-Post test)

Study selection or eligibility criteria
[edit source]

• Diagnosis of Down syndrome.
• Age between 2years up to 6years.
• Able to walk minimum 6-10steps with or without support.
• Both genders.

Interventions[edit source]

The research was conducted after taking permission from Ethical Clearance Committee and the administration of the Hospital.After each family agreed to participate in the study by signing a consent form, Children were assessed at the beginning of the study (pretest) with 10 Meter Walk Test.
During the initial phase of treatment, each family was trained on how to hold the child on the treadmill.
Subject were supported on treadmill, holding their under arms by their parents or by therapist hands, so that their feet touched the ground and moved back by the treadmill. Treatment scheduled for 30 minutes, in each session 8minutes walking followed by 2minutes of resting period.


Child feet touched the ground and were moved back by the treadmill with the support provided by their parents or researcher. The hope being that when their foot were too far behind them they were lift it up and put it in front of them. Eventually this would become a practiced pattern that the child had mastered. The treatment session was 30minutes in a day, 5 days in a week for 6 weeks.
Post treatment data with respect to 10 Meter Walk Test were noted at the end of 6weeks.


Measures and variables[edit source]

Outcome measure:
• Steps.
Tools:
• 10 Meter Walk Test38,39.

5.8 STUDY DESIGN
Experimental Study. Pre test-Post test Design.


5.9 SAMPLE DESIGN
Convenient sampling.

5.10 SAMPLE SIZE
Thirty subjects fulfilling the inclusion criteria.

Discussion[edit source]

The objective of the study was to evaluate effectiveness of TT interventions in subjects with DS.
In this study the method of assessment was done through 10 Meter Walk Test. It was used to assess steps and distance cover by subjects in 10 Meter as its validity and reliability has already been established.
The results of the study showed highly significant improvement in steps and distance both with the mean increase of 151.17% in distance and in 72.24% steps.
The improvement of steps and distance in this study concurs with similar founding by Valentin-GudiolMet al47.
In this present study all subjects received Treadmill training for 6weeks. All subjects showed significant improvement in steps (p=.000) and distance (p=.000) and results were highly significant from pre to post interventions.
In the present early intervention study, several infants displayed adequate leg strength and postural control needed to walk and were able to walk well with assistance. Early intervention theory suggests that higher-intensity interventions may produce greater positive outcome.
Hip flexion was present throughout the gait cycle in DS, due to a forward pelvic tilt but with limited excursion. The reason for that may be linked to the anatomical configuration of their pelvic girdle: the so-called "Mongol pelvis" is characterized by a deeper acetabulum and a decrease in the cephalo-caudal diameter and acetabular angle.
In the frontal plane, hip excursion (HAA-ROM index) was lower in DS. This strategy, directly linked to the pelvis movement in the frontal plane (PO-ROM index), appears to produce together with obesity and hypotonia the typical external rotation of the hip during stance.
As for ankle kinematics, DS were characterized by an increased plantar flexion and reduced dorsal flexion throughout the gait cycle with a globally limited ankle range of motion.
The increased hip stiffness in DS we found is consistent with the literature and may represent, together with the anatomical configuration of the pelvic girdle, a compensatory mechanism for muscle weakness. Stiffness values closer to the normal range suggest a more "physiological" walking strategy in DS.
Several factors could have influenced the outcomes. Parenting in the early years of a child's life is hectic and stressful; this situation is magnified when a child in the family has a disability that requires a considerable amount of attention.
It is also possible that too many variables were manipulated in this exploratory attempt to gradually increase the intensity of treadmill training for infants with DS. Manipulating belt speed, and daily duration on the basis of individual infant performance might be too complex. To reduce complexity for parents and researchers, we advise that each condition be manipulated separately.
In considering which procedures to manipulate in the future in an effort to increase intensity, gradually increasing belt speed as an infant increases the frequency of stepping should be the first condition selected. As an infant begins to take more steps on the treadmill, belt speed is associated with more stepping, assuming that the speed is not too fast.
When first starting, the children were not walking consistently for 30 minutes. They would walk for 1-2 minutes, take rest, and try again until they could achieve the full 08 minutes. Speed of treadmill can be adjusted according to the capacity of child foot step on treadmill.


Thayse L.M. Rodenbusch(2013), did a study on Effects of treadmill inclination on the gait of children with Down syndrome and results showed that children with DS presented changes in spatio-temporal variables (reduced cadence and increased cycle time and swing time) and in angular variables (increased hip, knee and ankle angles at initial contact; increased maximum hip flexion and maximum stance dorsi flexion; and reduced plantar flexion at pre-swing)41.
Valentin-Gudiol M, Mattern-Baxter K, Girabent-Farrés M, Bagur-Calafat C, Hadders-Algra M, Angulo-Barroso RM (2013), studied on Delayed motor development may occur in children with Down syndrome, cerebral palsy or children born preterm, which in turn may limit the child's opportunities to explore the environment. Neurophysiologic and early intervention literature suggests that task-specific training facilitates motor development. Treadmill intervention is a good example of loco-motor task-specific training. Treadmill interventions with partial body weight support in children under six years of age at risk of neuro-motor delay: a report of a Cochrane systematic review and concluded that the available evidence indicates that treadmill intervention may accelerate the development of independent walking in children with Down syndrome43.
Mattern-Baxter K et al (2011) did their study on Treadmill interventions with partial body weight support in children under six years of age at risk of neuro-motor delay with 139 subjects and their result suggested that treadmill intervention could lead to earlier onset of independent walking when compared to no treadmill intervention. The available evidence indicates that treadmill intervention may accelerate the development of independent walking in children with Down Syndrome48.


Results
[edit source]

The objective of the study was to evaluate effectiveness of TT interventions in subjects with DS.
In this study the method of assessment was done through 10 Meter Walk Test. It was used to assess steps and distance cover by subjects in 10 Meter as its validity and reliability has already been established.
The results of the study showed highly significant improvement in steps and distance both with the mean increase of 151.17% in distance and in 72.24% steps.
The improvement of steps and distance in this study concurs with similar founding by Valentin-GudiolMet al47.
In this present study all subjects received Treadmill training for 6weeks. All subjects showed significant improvement in steps (p=.000) and distance (p=.000) and results were highly significant from pre to post interventions.
In the present early intervention study, several infants displayed adequate leg strength and postural control needed to walk and were able to walk well with assistance. Early intervention theory suggests that higher-intensity interventions may produce greater positive outcome.
Hip flexion was present throughout the gait cycle in DS, due to a forward pelvic tilt but with limited excursion. The reason for that may be linked to the anatomical configuration of their pelvic girdle: the so-called "Mongol pelvis" is characterized by a deeper acetabulum and a decrease in the cephalo-caudal diameter and acetabular angle.
In the frontal plane, hip excursion (HAA-ROM index) was lower in DS. This strategy, directly linked to the pelvis movement in the frontal plane (PO-ROM index), appears to produce together with obesity and hypotonia the typical external rotation of the hip during stance.
As for ankle kinematics, DS were characterized by an increased plantar flexion and reduced dorsal flexion throughout the gait cycle with a globally limited ankle range of motion.
The increased hip stiffness in DS we found is consistent with the literature and may represent, together with the anatomical configuration of the pelvic girdle, a compensatory mechanism for muscle weakness. Stiffness values closer to the normal range suggest a more "physiological" walking strategy in DS.
Several factors could have influenced the outcomes. Parenting in the early years of a child's life is hectic and stressful; this situation is magnified when a child in the family has a disability that requires a considerable amount of attention.
It is also possible that too many variables were manipulated in this exploratory attempt to gradually increase the intensity of treadmill training for infants with DS. Manipulating belt speed, and daily duration on the basis of individual infant performance might be too complex. To reduce complexity for parents and researchers, we advise that each condition be manipulated separately.
In considering which procedures to manipulate in the future in an effort to increase intensity, gradually increasing belt speed as an infant increases the frequency of stepping should be the first condition selected. As an infant begins to take more steps on the treadmill, belt speed is associated with more stepping, assuming that the speed is not too fast.
When first starting, the children were not walking consistently for 30 minutes. They would walk for 1-2 minutes, take rest, and try again until they could achieve the full 08 minutes. Speed of treadmill can be adjusted according to the capacity of child foot step on treadmill.

Thayse L.M. Rodenbusch(2013), did a study on Effects of treadmill inclination on the gait of children with Down syndrome and results showed that children with DS presented changes in spatio-temporal variables (reduced cadence and increased cycle time and swing time) and in angular variables (increased hip, knee and ankle angles at initial contact; increased maximum hip flexion and maximum stance dorsi flexion; and reduced plantar flexion at pre-swing)41.
Valentin-Gudiol M, Mattern-Baxter K, Girabent-Farrés M, Bagur-Calafat C, Hadders-Algra M, Angulo-Barroso RM (2013), studied on Delayed motor development may occur in children with Down syndrome, cerebral palsy or children born preterm, which in turn may limit the child's opportunities to explore the environment. Neurophysiologic and early intervention literature suggests that task-specific training facilitates motor development. Treadmill intervention is a good example of loco-motor task-specific training. Treadmill interventions with partial body weight support in children under six years of age at risk of neuro-motor delay: a report of a Cochrane systematic review and concluded that the available evidence indicates that treadmill intervention may accelerate the development of independent walking in children with Down syndrome43.
Mattern-Baxter K et al (2011) did their study on Treadmill interventions with partial body weight support in children under six years of age at risk of neuro-motor delay with 139 subjects and their result suggested that treadmill intervention could lead to earlier onset of independent walking when compared to no treadmill intervention. The available evidence indicates that treadmill intervention may accelerate the development of independent walking in children with Down Syndrome48.

Limitations/Discussion
[edit source]

• Study included only 30 subjects which is a small sample size. Larger study involving increased number of participant should be employed.
• Duration of study was short (4 weeks). Hence long duration intervention is necessary for better outcome measures.

Conclusion
[edit source]

The objective was to find out effectiveness of Pilates in adolescent with LBP. This study results showed that Pilates had significantly decreased pain and improved quality of life in adolescent.
Pilates produced highly significant improvement in reducing pain (VAS score) and improvement in function (MODQ score) at the 4th week when compared to baseline values in subject with non-specific type of LBP.
Based on the above discussion and conclusion, it has been proved that this study supports the alternate hypothesis.

Funding and Declerations
[edit source]

NO

Registration number
[edit source]

if appropriate

Author Biography
[edit source]

include a short biography for each author and a link to their profile in Physiopedia

References[edit source]

References will automatically be added here, see adding references tutorial.

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