MEDICAL REHABILITATION OF CHILDREN.

MEDICAL REHABILITATION OF GYNAECOLOGICAL PATIENTS.

MEDICAL REHABILITATION OF PATIENTS WHICH SUFFERED AS A RESULT OF INCIDENT ON CHORNOBIL AES (CHAES).

 


Massage benefits individuals of all age groups and different conditions. Touch is as important to any infants and kids like eating and sleeping. Massaging involves loving, gentle stroking or kneading by a parent or caregiver on various parts of a child's body like the face, head, arms, shoulders, neck, hands, back, legs and feet.


Use of oils on the body of your precious little ones to soothe, relax and heal affirms a strong, close bond conveying a comforting sense of trust and security.
Early infant massage enhances the development of the nervous system and stimulates all other systems of the body. It improves circulation, respiration, aids digestion and eases elimination of wastes from the body. It also makes your little one less prone to gas and colic ailments. Massage of baby in its growing years prepares the body for sitting, standing and walking.



Massage is a wonderful stress buster for children who are prone to all kind of stress. Like a child starting a school in a new area, health, fights amongst parents, exams or peer pressure, etc produce emotional, physical and mental stress. Massage reduces stress hormones and heals the body.
Each child responds differently to massage. Some may squirm, cry, or some might just appear more relaxed and calm and also fall asleep.
There is no fixed time to massage your baby. Find a time suitable for you and your baby. Some enjoy in the morning after their feed, some in the afternoon before or after their naps. Massage before bedtime can put a cranky baby to sleep peacefully. Follow the massage with a warm bath.
While giving a massage, sit straight either on the floor or on the bed or stand before the table. The room is warm enough as your little one can shiver when undressed. The place where you massage you baby should be quiet and away from distractions of all kinds.

Lay your child on soft surface like thick set of towels so it may not hurt it self when it wriggles or squirms. Keep aside towel, pair of wash cloths, clean diaper and baby clothes for use after the massage.


Oils are good for lubrication, helping your hand glide smoothly over your baby's soft and rather delicate skin. Small babies have a habit of putting their hand or fingers in their mouth all the time, so its ideal to use oil that is of good quality. Use cold pressed (oils extracted by means of pressure) or unscented oils. Alternatively you can use baby oils produced by many companies which specialize in baby products. Grape seed oil has nice texture, apricot and almond oils are smooth, light and easily absorbable into the body. To massage your babies, use coconut oil in summers and mustard oil in winter.

Intensive Neurophysiological Rehabilitation System The Kozijavkin Method

It is well understood that Cerebral Palsy is caused by many different noxious factors applied to the developing brain. Nowadays, more than 400 different causes are known, which determine very different clinical signs in each child affected. Each patient is a peculiar individual, and therefore one universal way of treatment cannot be applied to all patients.

Unfortunately, the use of only traditional methods of physical therapy and rehabilitation fail to bring the desired results in many cases. The therapy should not have a single focus. Only an individualized combination of different treatment modalities can achieve the desired results.

One such multimodal approach to the rehabilitation of patients with CP is the Intensive Neurophysiological Rehabilitation System (INRS), also known by the name of its author – the Kozijavkin Method.

Stimulating compensatory possibilities and brain plasticity, this method creates a new functional state which opens the possibility for faster motor and mental development of the child.

Different rehabilitation modalities of this system complement and intensify each other, and are aimed at the main task of rehabilitation: improvement in the quality of the patient’s life.

It is important to stress that the Kozijavkin Method is not an alternative to existing rehabilitation approaches. It complements and significantly increases the efficiency of many other existing rehabilitation systems.

The new functional state, created by the INRS, along with muscle

tone normalization, joint mobility restoration, improvements of tissue

trophicity and blood circulation, opens new wide possibilities for the

development of the child and enhances the results of other

rehabilitation treatments.

The Kozijavkin Method was created 15 years ago in the Ukraine and

thus far, more than 15, 000 patients have been treated by this method,

including about 7,000 from Germany, Austria, Switzerland, and France.

 

 

More than 40 families from the United States have also traveled to

the Ukraine to experience this treatment.

Already in 1993, the rehabilitation system has been officially recognized by the Ukrainian government. Due to the high level of success with the Kozijavkin Method, it has received international approval and has been included in the encyclopedic edition of child orthopedics by the well-known German professor, Frits Niethard (1998), as one of the four most effective approaches to the

rehabilitation of Cerebral Palsy.

Statistical analysis of the medical records of a group of 12,256 patients treated by the Kozijavkin Method confirmed the high efficiency of this rehabilitation system.

Muscle tone normalization was noted in 94% of patients, improvement of head control in supine position was noted in 75% of patients, 62% of the patients who were unable to sit before the treatment have learned to sit, 19% of patients began to walk without assistance, and 87% of patients after the treatment were able to

open their spastically fisted hand.

 

Fig 2. Results of the rehabilitation by the Kozijavkin Method

Over the past few years, the interest in our rehabilitation system has grown in the USA. Beginning in 1999, our doctors have made presentations of the Kozijavkin Method in the USA and this information was accepted with great interest at the University of Illinois in Chicago (1999), the Cleveland Clinic (2000), the conferences of the American Academy of Physical Medicine and Rehabilitation (2000), and at the American Congress of Rehabilitation Medicine (2001).

Several special conferences and workshops have been conducted in New York, Ohio, Florida, California and Washington.

This article about the basics of our rehabilitation system will provide a clear explanation of the Intensive Neurophysiological Rehabilitation System for health professionals, patients and parents.

 

History of the Kozijavkin Method

In the process of its rise and development, the Kozijavkin Method, Intensive Neurophysiological Rehabilitation System went through several evolutionary stages, constantly improving and adjusting.

The basis of the rehabilitation system – the method of the biomechanical correction of the spine was worked out already in the late 1980’s. The author of the method, Prof Kozijavkin, while treating patients with diseases of the nervous system and spine, had utilized the methods of manual therapy. With long-term experience, he discovered that the use of certain spine mobilization techniques resulted in normalization of muscle tone.

This practical experience encouraged the successful use of the spine mobilization techniques for the reduction of muscle spasticity in children with Cerebral Palsy.

However, the anatomical and physiological peculiarities of the child’s spine required an adaptation of the classical methods of the manual therapy. Therefore, V Kozijavkin developed the original technique of the polysegmental biomechanical correction of the spine specific to the child.

For the first time a report about the new method of rehabilitation was delivered at the All-Union Research Conference on child neurology and psychiatry in Vilnius in 1989.

The new rehabilitation system awakened interest among doctors and researchers of the Soviet Union. In the same year, a commission of experts headed by the leading Soviet neurologist, Prof K. Semenova, confirmed the effectiveness of the new

rehabilitation system.

In 1990 to enable wider implementation of the new rehabilitation system in Lviv (Ukraine), a new contemporary Rehabilitation Center was founded. This center began treating patients from the Ukraine and Russia. However, as information about the new rehabilitation system spread to Europe, the first group of patients from Germany arrived in the Ukraine for treatment in 1991. Positive treatment

results have since led to an increase in the number of patients.

Since 1993, a group of patients arrive for the treatment in the Ukraine routinely, twice a month, by a special flight from Frankfurt (Germany). In 1993 by the resolution of the Ukrainian government, this method has been officially recognized and recommended for the wide application in the medical practice.

In order to broaden the range of the research work and further refine the rehabilitation approach, a new Institute for Medical Rehabilitation was established. The main direction of its work was the further research in the medical rehabilitation of patients with diseases of the nervous system and spine.Employees of the Institute collaborate with Lviv Medical University, Ukrainian Research Institute of Neurology and Psychiatry, Kiev Medical Academy of Postgraduate Education, German Academy for Rehabilitation and Development, Munich Child Center, and many other scientific and practical institutions.

 

Fig 3. Institute for Medical Rehabilitation

was established in 1996

 

Good results and the high efficacy of the new rehabilitation technology assisted in its recognition not only in the Ukraine, but also far abroad.

Well-known German professor Frits Niethard in his encyclopaedic edition of child orthopedics (1998) includes the Kozijavkin Method in the four most effective approaches to rehabilitation of Cerebral Palsy.

 

 

*          

Fig 4. The encyclopedic edition in child orthopedics included

the Kozijavkin Method in a list of the four most effective

rehabilitation systems for patients with CP

For major achievements in rehabilitation research, a group of physicians headed by Prof Kozijavkin received the State Prize of Ukraine in the Field of Science and Technology in 1999.

To spread the advanced experience in the field of rehabilitation, our Institute in close cooperation with the department of physical therapy and rehabilitation of Kiev Medical Academy of Postgraduat  Education has established educational postgraduate courses.

Since 1999, over 750 physicians of different specialties have become acquainted with the basics of the Intensive Neurophysiological Rehabilitation System during the advanced training courses.

In order to provide high-level accommodations for an increasing number of patients, and permit continued improvements and expansion  in the rehabilitation system, a new contemporary International Clinic of Rehabilitation was put into service in the summer of 2003 in the ecologically clean area, in the health resort Truskavets.

 

Pathophysiological basis of the rehabilitation system

The damage of the central nervous system in Cerebral Palsy is accompanied by the secondary changes of the muscloskeletal system and other systems of the body.

High muscle tone, pathological reflexes, improper body position, and pathological movement patterns cause changes of the joints, shortening of the spastic muscles, tendons and ligaments, and abnormalities of blood circulation and metabolism.

Those pathological changes are accompanied by restriction of joint movement and development of functional blockages.

As is evident in literature, functional blockages by themselves augment disturbances in trophicity, circulation, and autonomic functions resulting in further slowing and distortion of motor development in the child. A pathological vicious circle is formed.

In Cerebral Palsy, functional blockages develop in the majority of the joints. In the study of this phenomenon, most authors haveaddressed joints in the extremities,  but there is little discussion of the more than 100 joints of the human spine in which functional blockages are also developing.

Our studies, which began in the mid eighties, showed the important role of the spine in the pathogenesis of Cerebral Palsy. The functional blockages are not limited to a single joint of the spine, but rather the blockages occur in several adjacent vertebrae resulting in polysegmental spinal blockages.

These spinal blockages influence all the organs of the human body which are innervated by the corresponding segments of the spinal cord. The segmental interactions are disturbed (both with respect to innervation of the organs and systems innervated by the same segment of the spinal cord), as well as those innervated by vertical connections of the segment with the higher centers of the nervous system (connections with brain stem, basal ganglia and cortex).

Proprioception may also be affected in CP. In the joints, tendons and muscles there are receptors that relay information about body position, equilibrium and movements. There are muscle spindles in the muscles, Golgi tendon organs in the tendons, and joint kinesthetic receptors in the joints.

Information from those receptors is essential, not only for the performance of all movements, but also for motor training and learning new movements.

Recent studies have shown that functional spinal blockages are blocking and distorting the flow of proprioceptive information from the musculoskeletal system through the central nervous system, which further complicates the motor development of the CP patient.

In an attempt to correct the above-mentioned pathological signs, the method of biomechanical correction of the spine and large joints has been developed. This method became the basis of the Intensive Neurophysiological Rehabilitation System.

The technique of the biomechanical correction releases functional blockages of the spine, restores joint mobility and opens the “gate” for the flow of the proprioceptive information to the central nervous system.

 

Fig 5. Releasing of functional spinal blockages opens the flow of

the proprioceptive information to the central nervous system and

creates a new functional state in the individual.

The results of this technique are not limited to the changes in joint mobility, but are accompanied by complex changes in the body – the so-called new functional state is created. The muscle tone is normalized, and tissue trophicity, blood circulation, and metabolism are improved.

The new functional state significantly enhances the possibility for faster motor and mental development. However, isolated use of the biomechanical correction of the spine is not sufficient. It only creates the basis for the possible future development of the child.

This rehabilitation approach assumes that the human body is a complex self-organizing system, made up of many subsystems which can exist and develop normally only if their interconnections are ordered and harmonious.

The damage or malfunction of one subsystem disturbs the function of the entire organism as is the case in CP. When self- regulation is not sufficient, the dysfunction of the whole body occurs.

Influencing the different chains of the pathological process with different modalities, our task is to break the pathological vicious cycle, create a new functional state in the body, and open up the possibilities for faster motor development.

Hence, the Intensive Neurophysiological Rehabilitation System was created. It combines different treatment modalities that complement and reinforce each other. The method of biomechanical correction of the spine, combined with other treatment methods, is used to prepare the child for the correction, sustain the achieved results, create correct movement patterns, and accelerate motor and mental development.

The pathophysiological mechanism presented above is only one of several hypotheses regarding the effects of this treatment method.

Other hypotheses of the therapeutic influence of the Kozijavkin Method are now in the process of development.

Principle of the Star in Rehabilitation

Some rules of the medical rehabilitation by the Kozijavkin Method could be illustrated using the principle of a pentagon star.

A man could be represented as a star and the points of which correspond to the hands, legs and head. All the points are joined around the center and the axis of the body – around the spine and spinal cord. Each point includes main structures – muscles, bones, joints, vessels, and nerves. The proximal large joints, big muscle groups, large vessels and nerves are situated near the center of the star. Distal small joints and muscles, tiny vessels and nerves are on the ends of the star points. Phylogenetically older structures of the brain stem occupy the most proximal areas of the point representing the head, followed by younger structures (basal ganglia), and distally the youngest structures, which determine higher functions – the brain

cortex.

Tight interconnections of all the structures are necessary for the normal development of the body achieved by the efferent (from center to periphery) and afferent (from periphery to center) informational flow.

Functional blockages of the spine in cases of CP patients disturb this interconnection, and block the flow of proprioceptive information.

This could be presented as a disturbed interrelation of the star points. Restitution of normal interconnection among the points to achieve harmony of the star in the Kozijavkin Method is achieved using the principle from the “center to the periphery”.

 

Fig 6. Principle of the Star in the Rehabilitation.

The therapeutic influence starts on the central structures

(circle A), then gradually added the influence on the proximal

-B, middle–C, and distal–D structures of the body

In the early sessions the therapy is applied primarily on the central structure, the spine (circle A on the picture).

The purpose of this method is to release the functional spinal blockages, normalize muscle tone, tissue trophicity and blood circulation, and create a new functional state in the organism.

In the central nervous system this new functional state is manifested by the mental arousal of the patients, a psychological “awakening”, opening possibilities for the motor and mental development of the child and enhanced effectiveness of other treatment modalities.

The next step is meant to influence the proximal structures. The large joints of the shoulder and pelvic girdle are influenced utilizing the mobilization techniques of physical therapy and massage (circle B).

Gradually the methods aimed at activation of the medium sized joints (circle C) are added, and finally the small distal structures are treated (circle D).

Creation of the higher and more “distal” fine motor functions of the hand, development of balance, and improvement of speech is possible only after the development of the previous, more “proximal” functions.

The correction begins with the “central” structures, which affect phylogenetically older and more simple functions. Then the influence on the “proximal” and “middle” structures is added, and ultimately, the treatment of the “distal” structures, which fulfill a new and higher function merged.

Short Description of the Kozijavkin Method

The Kozijavkin Method or INRS consists of two subsystems – The Intensive Correction Subsystem and The Stabilization and Effects Potentiation Subsystem. The Intensive Correction is performed in the Rehabilitation Center and lasts for two weeks. In the period of Stabilization and Effect Potentiation, treatment is continued at home according to the recommendations given to the patient at the center.

This period usually lasts from 6 to 8 months, at which point the patient is admitted to the center again for the next course of Intensive Correction.

 

Fig 7. The Kozijavkin Method is a multimodal rehabilitation

system

INRS is a multimodal rehabilitation system in which the influence of one component is complemented and intensified by the others. The main treatment programs include biomechanical correction of the spine, extremity joint mobilization, reflexotherapy, mobilizing physical exercises, special massage system, rhythmical group exercises, mechanotherapy and apitherapy which are described in the next section. ...

Biomechanical Correction of the Spine

The basis of the rehabilitation system is the polysegmental biomechanical correction of the spine created by Prof. V. Kozijavkin MD. It is aimed at releasing the functional blockages of the spinal segments and resumption of normal mobility of the joints of the spine.

 

Fig. 8. Biomechanical correction of the spine is an

important part of the treatment

Biomechanical correction of the spine is carried out consecutively in lumbar, thoracic and cervical regions. Lumbar spine correction includes simultaneous mobilization of all blocked movement segments using our method of “backward rotation”. Correction of the thoracic blockages is performed starting from the upper regions to lower using special impulse techniques. Corrections of the cervical spine are performed using movement with complex trajectory to simultaneously influence all blocked segments.

Extremity Joint Mobilization

Extremity joint mobilization is used for the improvement in mobility of the joints, stretching and improving muscle elasticity, stimulating blood circulation, and for prevention of joint contractures.

Mobilization starts with the treatment of the large joints (hip, knee, shoulder) and then gradual involvement of the small joints. In our work we use classical principles and also newly created techniques.

The joints in our rehabilitation system are brought out of the passive range of motion using a certain limited force. Gentle tactile traction methods are used in combination with vibrating movements, as well as an impulse technique of tapping along the joint cleft. During the treatment course the intensity of the mobilization increases gradually. Mobilization of the mandibular joints with the facial massage is used for improvement of articulation and chewing movements.

Reflexotherapy

The method of reflexotherapy serves to intensify the achieved spasticity reduction, eliminate trigger points in the muscles and correct autonomic disturbances. The biologically active points are influenced by means of a portable electric low voltage stimulator, which is applied to the points of classical meridians, as well as

specific points. Influence on the trigger points is performed simultaneously with the post-isometric and post-isotonic muscle relaxation. Reflexotherapy is performed through intact skin and is painless.

Mobilizing Physical Exercises

Physical therapy is an essential part of the rehabilitation system. In our program we use mobilizing physical exercises that are aimed at the improvement of mobility of the joints of both the spine and extremities, creation of new motor patterns, and acquisition of the necessary mobility for daily life skills. The exercises are performed following the rule “from center to periphery”, so that the main influence is on trunk movement and proximal joints with gradual involvement of movement

in distal small joints. New motor acts are taught first through passive movement, then through passive- active movement, and finally through active movement. Simple movements are undertaken first, followed by more complex movements. Daily sessions include breathing exercises, exercises for joint mobilization, as well as strengthening exercises.

 

Fig 9. Physical therapy is an essential part of the

rehabilitation system

Special Massage System

In our rehabilitation program the special massage system is used to prepare for the biomechanical correction of the spine, muscle relaxation and reflexotherapy. It includes techniques of classical, segmental, and periosteal massage in combination with post- isometric and postisotonic relaxation. In order for the biomechanical correction of the spine to be effective, the appropriate preparation of the musculoskeletal system is essential. Such preparation is provided by means of relaxation massage techniques. Elements of joint mobilization and acupressure are also included in the massage system. Techniques of stimulating massage are used for activation of hypotonic, weak muscles.

Rhythmical Group Exercises

Rhythmical group exercises are used to encourage emotional development and social integration of the child. Group exercises are performed with the elements of play therapy using music and dance.

The patients are grouped by age and the level of motor ability and parents are also involved in these sessions. A positive emotional attitude assists in the stimulation of the patient’s motivation for recovery and strengthens their belief in their own power and potential.

Apitherapy

The method of apitherapy (treatment with bee’s products) in our rehabilitation system includes beeswax wraps and the application of bee venom. Apitherapy is used for the improvement of local blood circulation, metabolism and tissue trophicity. Allergy testing is performed prior to this treatment. In the technique of beeswax wraps, the warm packages of beeswax mixed with paraffin, honey and propolis are applied to selected joints or muscle groups. Along with the thermal

influence, the diffusion of biologically active substances through the skin is important for muscle growth.

Mechanotherapy

Several methods of mechanotherapy are used to strengthen muscles, improve coordination and correct movement patterns. Lower extremity training is done using lever devices. The optimal training regime is set by adjusting levers, weights and the number of repetitions.

Treadmill and cycling devices are used for the correction of lower extremity movement patterns. For the upper extremities we use primarily block devices. Devices such as the “Vibroextensor”, which combines heat, vibration and mechanical massage of the para-vertebral regions are also used.

 

Fig 10. Methods of mechanotherapy are used to strengthen

muscles, improve coordination and correct movement patterns

Indications and Contraindications

Main Indications

• Cerebral Palsy (all forms)

• Gross and fine motor delay

• Post traumatic brain injury, stroke and neuroinfectionsat least 6 months after the event

• Vertebral pathology with low back pain

• Impairments of the autonomic nervous system, e.g.functional cardiac and respiratory complaints

• Headaches and Migraine

Contraindications

• Congenital anomalies of the vertebral column and of the central nervous system

• Expressed spine instability – spondylolisthesis, and osteoporosis

• Acute inflammatory and infectious diseases of the central nervous system

• Acute period after brain trauma and stroke

• Severe brain damage

• Decompensated Hydrocephalus

• Severe epilepsy and convulsions with frequent seizures

• Tumors of the spine, spinal cord and brain

• Inflammatory diseases of the spine

• Prior spine surgery

• Fragile medical condition

• Pronounced psychiatric disorders

In doubtful cases, the decision is made individually after extended examination and review of medical records.

Treatment results

The primary goal of the outcome studies of the Intensive Neurophysiological Rehabilitation System is the assessment of those functions which influence the quality of life, the main aim of our rehabilitation treatment. Therefore, the studies evaluate gross motor function, fine motor function of the hand, and mental

development.

A four-level diagnostic algorithm has been worked out for the complex patient evaluation. It includes the preliminary selection of patients for treatment, obtaining data necessary for the development of individual rehabilitation programs, observation of the changes in the patient’s conditions during the treatment and preparation of the home program for the patient.

In 2002, the extended analysis of the medical data of 12,256 patients treated with Intensive Neurophysiological Rehabilitation System was reported.1 In this group, 89% of the patients were children with different forms of Cerebral Palsy, 6% - with disorders of the spine, 3% with residual conditions after damage of the central nervous system (stroke, brain trauma), and 2% with other conditions.

Among the CP patients, 73% had spastic quadriplegia, 16% spastic diplegia, 7% hemiplegia, 2% had hypotonic form and 2% - hyperkinetic.

The largest age group consisted of patients from 7 to 14 years – 36% (Fig 11). Unfortunately, only 3% of the patients began treatment below 4 years of age.

 

Fig 11. Distribution of Patients by Age and Gender

Before treatment in our clinic, patients have tried other

rehabilitation methods: 73 % neurodevelopmental therapy

(Bobath), 59% rehabilitation by Vojta, 18% Conductive

Education by Petö, and 22% tried other treatment methods ..

(Fig 12)......... ......................................................

 

Fig 12. Rehabilitation Methods Used Before our Treatment

37% of patients were treated in the Clinic for the first time. 26% came for the second treatment, 14% of patients for the third visit, 9% for the fourth visit, and 14% for five or more times.

One of the important clinical signs of the CP patient is the alteration of muscle tone.

The Ashworth Scale was used for the assessment of muscle tone.

Among the group of 10,793 patients with spastic forms of Cerebral Palsy , 93% of patients experienced a reduction in muscle tone.

(Fig 13). In 7% of the cases, the muscle tone remained unchanged.

 

Fig 13. Changes in Muscle Tone

Range of passive and active joint movements is one of the important rehabilitation goals. Our results presents the changes of active and passive range of motion in large joints in a group of 10.793 patients with a movement limitation before the treatment.

After the treatment, the range of passive movement increased in 91% of the cases. The volume of active movements increased in 84%. Passive and active movements remain unchanged in 8 and 15 % of cases respectively, and there was some reduction of the movements’ volume in only 1%.

We have developed a scale of gross motor function, which was used to evaluate a group of 12,256 patients following treatment.

75% of patients without prior head control in the supine position had learned to control their head. 62% of patients who were unable to sit, had learned to sit, 28% of patients had learned to crawl, 41% of patients who earlier were unable to stand, had learned to stand, and 19% of patients began to walk without assistance.

 

Fig 14. Development of New Motor Functions

The ability of the hand to grasp an object and release it are both important functions for independent life and both components are often disturbed in CP. The Sollerman Hand Test (1995) was used to evaluate the grasp function. Improvement of fine motor skills was noted in 87% of the patients that had problems with grasp before the treatment. Hand function was unchanged in 13% and there was no deterioration in any case.

 

Fig 15. Function of the Hands

Once the child with CP returned home, further improvement of motor function was noted in 45% of cases if therapy was continued at home. In 47%, the achieved results remained at the same level and the results were deteriorated in only 8%, mostly after infection, diseases, or surgery.

 

 

Fig 16. Results of Treatment between Intensive Courses

It was noted that the Kozijavkin Method of rehabilitation resulted in improvement not only of movement and posture, but also in the development of the psychological and mental function of the CP patient. 300 patients with CP were evaluated together with the Ukrainian Research Institute of Neurology and Psychiatry2.Using the British Picture Vocabulary Scale, a significant increase of the intelligent quotient after the treatment was noted. In the case of the patients with spastic quadriplegia, the scores increased from 76 to 89 points.

 

Fig 17. Changes of Intelligent Quotient (IQ)

Novelties in the Kozijavkin Method

Through activation of both internal compensatory potential and plasticity of the nervous system, the effect of Intensive Neurorehabilitation is the new functional state of the child’s body.

The next important step after the normalization of muscle tone and increase in range of passive and active movements during a rehabilitation course is to eliminate previous pathological movement patterns and to develop new, correct movements.

To solve the above problem, we created a new component and it was added to the program, which is based on the principles of dynamic proprioceptive correction.

All exercises of this program are carried out with the use of a biodynamical correction “Spiral” suit, which applies additional exertion to certain joints. This creates forces for the dynamic correction of movements and posture of the patient, and assists in acquiring new movement patterns. While strengthening relatively weak muscle groups, especially the extremity extensors, this program promotes vertical positioning of the child.

 

Fig 18. Biodynamical Correction Suit “Spiral” with elastic

straps to provide the necessary corrective force

The suit consists of a system of elastic straps which are wrapped in a spiral across the body and extremities. Imitating the positions of main muscle groups, they provide the necessary corrective force.

The straps can be attached to the supportive elements on the trunk and extremities (vest, shorts, knee, elbow, foot and wrist pieces).

Velcro attachments on the straps allow for various adjustments to be made optimizing the corrective action desired.

The development of a new movement pattern and the correction of the posture of the patient is attained through the sum of forces applied by the appropriate placement of the elastic straps. Attention is paid to the peculiarities of a patient’s musculoskeletal system and the goals of treatment.

 

Fig 19. Training in Biodynamical Correction . .

“Spiral” Suit enhances physical therapy

 

The biodynamical correction suit is used to enhance remedial gymnastic exercises, mechanotherapy, treadmill training, training with play therapy devices, and plain movement activity of the child.

For the relaxation of muscles and joint mobilization a “Dolphin- Imitator” is used. This device causes wavy movements of the ankles, which are propagated along the body. Those movements are much like the movements of a dolphin in the water.

 

Fig 20. Wavy movements of the ankles spreading along the body

assists in spinal joints mobilization, relax spastic and overstrained

muscle groups

An individual selection of frequency and amplitude provides

movement waves, which pass along the whole spine and body

assisting in spinal joint mobilization, relaxation of spastic and

overstrained muscle groups, and improvement in blood supply

and trophicity of the musculoskeletal system. This effect can be

enhanced by comfortably positioning the patient, and by adding

acoustic or visual stimulation during the treatment.

American psychologist, O’Gorman (1975) has mentioned that:

“Motivation of the patient is the most important, yet the most

difficult part of the work of the therapeutic professions”. Keeping

this in mind, we have developed a series of special game- training

devices aimed at the improvement of different movements and

the activation of the patient’s motivation for training sessions.

One of these is a hand-training device, which requires the patient

to perform a specific exercise in order to successfully play a

computer game. This stimulates the development of movement

speed, increases movement amplitude, shortens reaction time

and improves eye-hand coordination.

Specially developed existing computer games turn physical

training into an effective, and most important, an interesting

treatment procedure. Simultaneously, game software measures

movement parameters – volume, speed, frequency, and all the

data of each training session is stored, and can be used to analyze

the patient’s progress.

 

Fig 21. Hand training device improves hand function

in the game

Another device is a training chair in which a game is played with trunk

movements. The training chair provides a method for developing body

movement coordination and improvement of postural control. The chair

is equipped with a special system of sensors, which determine position

and movement of the body in three dimensions. The information is

transmitted to a computer that operates a computer game. While taking

part in the game, the patient directs a virtual object by bending forward

and back, tilting to the side and rotating the trunk. To enhance emotional

involvement of the patients, in some cases, virtual reality may be used.

 

Fig 22. Training chair. By

bending forward and back,

tilting to the side and rotating his

trunk , a child plays a com

 

International Clinic of Rehabilitation

Increasing number of patients, constant development and expansion

of our rehabilitation system, and the need of the patients for

comfortable accommodations forced the creation of a new

rehabilitation facility.

In the summer of 2003 in the ecologically clean area near the

mountains, in the health resort Truskavets, a new 14 thousand sq.

m International Clinic of Rehabilitation was opened. The new

building, situated near a lake, is created in the Secession

architectural style, distinguished by the escape and release from

the old traditions and dogmas.

 

Fig 23. International Clinic of Rehabilitation

All the lobbies of the clinic are ornamented with flower decorative patterns made with stained glass with internal lighting. Stylized snowdrops and violets symbolize spring and revival of nature.

Decorative patterns and ornaments are part of the art- therapy aimed at stimulating the patient’s motivation for recovery and freedom from disease. Internal decorations, parquet and furniture were made with birch, a tree, known for its healing influence.

Fig 24. Lobbies of the clinic are ornamented with flower

decorative patterns made with stained glass with internal lighting

The medical departments of the clinic are situated on the first and

ground floor of the clinic and in the tower. Diagnostic departments

were planned bearing in mind the main task of the diagnostics in the

Intensive Neurophysiological Rehabilitation System – assessment

of the functional condition of the child, his adaptation and

compensatory possibilities.

Contemporary diagnostic equipment makes a wide range of

Neurophysiological examinations possible including tests of

respiratory and cardiovascular systems, extensive study of gross

motor functions, gait analysis, and hand functions.

 

Fig 25. Diagnostic equipment makes possible a wide ............

range of examinations

Spacious rooms in the rehabilitation department with comfortable

furniture and modern rehabilitation equipment ensure that training

sessions may be carried out effectively and provide for the comfort

of the patients and the medical personnel

Special rooms for mechanotherapy and physical therapy are equipped

with the gear for strength training, improvement of movement

coordination, gait training, and gradual body adaptation to its new

functional state.

 

Fig 26. Rooms for mechanotherapy are equipped

with all the necessary gear

Several rooms are specially equipped for training in the biodynamical

movement correction program and for sessions of computer game

training.

Computer network and specially developed software automate

storing and analysis of all the medical data.

The Clinic also includes 100 living quarters, which provide all the

necessary comfort for the patients and accompanying persons during

the entire rehabilitation course. Modern interior design, nice furniture,

and comfortable beds make the stay in the clinic suitable and cozy.

 

Spacious one, two or three-room suites with the living space of

over 24 sq. m, are equipped with phone, refrigerator, TV, and Internet

connection. Roomy bathrooms with the space of 6 sq. m are

accommodated to the special needs of the residents.

 

Fig 27. The Clinic includes 100 living quarters

accommodated to the special needs of the residents

Standard services – laundry, ironing, clothes repair, etc are available

for guest use. Room security is provided by electronic locks and a

reliable access control system. Most technological processes of the

clinic are automated according to the technology of “Clever House”.

A comfortable restaurant, which seats up to 180 people is situated

on the second floor of the clinic. Self-serving tables adapted for

people with disabilities feature a large assortment of meat, fish and

vegetable dishes, different juices, fruits, and confectionaries.

 

Fig 28. A comfortable restaurant is situated on

the second floor

Patients, parents and accompanying persons may spend free time

in a bar located on the first floor of the clinic. Different drinks,

snacks, and confectionaries are served here in a cozy setting.

 

 GENERAL PEDIATRIC REHABILITATION

 Earliest signs of Duchenne muscular dystrophy:

Early diagnosis of Duchenne muscular dystrophy is desirable because its X-linked recessive mode of inheritance places the family at risk for giving birth to additional cases. The early devel­opmental history is normal with age-appropriate achievement of milestones, such as raising head from prone and sitting independently. In retrospect, there is often a history of difficulty in arising from the floor, frequent falls, or an abnormally loud thud when walking. Neck flexor muscles are involved early, and these children have a characteristic difficulty in raising their heads when supine. These subtle deviations are regarded as permissible in the child who is just beginning to ambulate and go unnoticed or are attributed to clumsiness. Around age 3-6 years, the lag in motor development becomes inescapable. The child shows difficulty with climbing stairs, devel­ops a waddling gait to compensate for proximal weakness with lordosis, and develops toe-walk­ing to maintain the center of gravity over the feet and to prevent collapse at the knees.

 Genetic abnormality in Duchenne muscular dystrophy:

The Xp21 site on the short arm of the X chromosome. The surprise is the enormous size of the gene, which spans 2.3 million base pairs of DNA. It in turn codes for dystrophin, a muscle-specific protein of leviathan size. The specific function of this protein is still being determined, but it is believed to be a component of the muscle cell membrane. The protein participates in the stabilization of muscle cell membrane.

What is the most common peripheral neuromuscular disorder affecting infants? Is it really associated with all of the "fibs and positive sharp waves" you heard about in medical school?

Spinal muscular atrophy (SMA) type 1, which affects the anterior horn cell and is present in infancy (Werdnig-Hoffman disease), is the answer. Although electrodiagnostic evaluation of SMA demonstrates significant membrane instability with numerous fibrillations and positive sharp waves, clinical studies do not report an overabundance of these findings. In fact, if fibrilla­tion potentials are profuse, think of other disorders, such as type I hypotrophy with central nuclei, mitochondrial myopathy, or storage diseases.

 In children, when do motor nerve conduction velocities (MNCV) approach adult values?

MNCV parallel the development of myelination. Myelination begins at about the 15th week of conceptional age. After birth, there is a direct relationship between conceptional age (defined as gestational age plus age from birth) and MNCV, which is independent of birth weight. By 3-5 years, MNCV has reached adult values.

 What musculoskeletal condition is common to preadolescent female gymnasts and pro­fessional football lineman?

Spondylolysis. It is the probable result of nonunion of a stress fracture of the posterior ele­ments of the lumbar vertebrae brought on by repetitive high-stress hyperextension activities. The L5 vertebra is most commonly involved, but any spinal segment may be affected. Spondylolisthesis refers to slippage of one vertebra on the one below it and, if severe, may compress spinal nerve roots, causing an impingement syndrome. Just remember that spondylo means spine, lysis means a breakdown, and listhesis slips off your tongue.

 When do you worry about idiopathic adolescent scoliosis?

Although idiopathic scoliosis is the most common form of childhood scoliosis, other causes must be considered before the diagnosis is made. These include relatively minor problems, such as a leg-length discrepancy or poor posture, as well as serious conditions such as vertebral and spinal cord tumors, osteoid osteomas, and spondylolisthesis. Muscle spasms and hysteria are other conditions that may present as a scoliosis.

Since idiopathic scoliosis is generally a painless condition, a report of pain, especially at the convexity of the scoliotic curve, must be taken seriously, and further evaluations to determine an etiology are mandatory. Other red flags which signal the need to evaluate a child in greater detail are onset before puberty and presentation in a male.

What degree of spinal curvature is of concern in cerebral palsy, muscular dystrophy, and idiopathic scoliosis?

The degree of curvature determines the recommended treatment. In muscular dystrophy, sur­gical stabilization should be done before the decline in vital capacity makes surgery risky. This occurs when the patient's vital capacity falls below 35% of expected, which equates to a curva­ture of 35° or more in muscular dystrophy patients. Surgery when vital capacity is < 25% of ex­pected may lead to postoperative ventilator dependence. In patients with quadriplegic cerebral palsy, correction of scoliosis is usually indicated when the curvature exceeds 45°, but additional risk factors such as epilepsy, respiratory capacity, and overall general health make these children poor candidates for major surgery. These factors as well as alternative interventions such as the use of a spinal orthosis should be considered before surgery is undertaken.

Who was Gavriil Ilizarov and what was he doing in Siberia in the 1950s?

He was perfecting a technique for lengthening limbs. In 1951, Professor Ilizarov developed a surgical procedure for treating many pathological conditions of the musculoskeletal system. His method involves creation of an osteotomy followed by application of an external fixator to apply controlled distraction of the bone. The gap caused by slow separation of the ends of the bone is filled in with new bone tissue. The rate of lengthening is approximately 1 mm/day. The amount of length achieved is related to the bone being treated and the etiology of the limb-length discrep­ancy. In general, the femur should not be lengthened more than 6 to 10 cm at one time. Upper limits for lengthening in other bones are: tibia, 10-15 cm; humerus, 10-15 cm; and forearm, 5-10 cm. Intensive therapy following the procedure for stretching soft tissue and muscle to ac­commodate the lengthening bone is essential to the success of the procedure. Therapy needs to continue throughout the entire lengthening phase of the procedure as well as during the period of bone consolidation that follows.

 Should surgical exploration with microsurgical reconstruction be attempted for obstet­rical brachial plexus injury?

The answer is not clear cut and a number of opinions exist. Proponents of surgery suggest that the absence of deltoid or biceps function at 3 months of age is the key clinical finding and that surgery is indicated. They believe that it should not delayed to more than 6 months of age if there is no evidence of further spontaneous recovery. A large study of 470 Swedish patients didGeneral Pediatric not support this point of view. No difference in outcome was found in upper plexus palsies in those children in which surgery took place before or after 6 months of age.

Why are the neonatal reflexes an important part of the examination of infants sus­pected of having neurologic disorders?

The neonatal or primitive reflexes are part of the bundled software with which we are born. These provide a temporary set of automatic instructions for protecting the defenseless newborn in the hostile extrauterine world. These include the Moro reflex, asymmetric tonic neck reflex, tonic labyrinthine reflex, positive supporting, rooting, palmar grasp, plantar grasp, automatic neonatal walking, and placing. As the brain completes its myelination and the ability to control movements increases during the first year, the child needs to be able to control voluntary move­ments. If the neonatal reflexes persist beyond 4-6 months of age or manifest themselves in a mandatory fashion which "locks" the child in specific positions, they become chains that bind rather than rails to guide the child on the path to independent movement. Therefore, their pres­ence in a persistent or obligatory fashion is one of the earliest clues of impairment to the motor control centers of the nervous system.

 How do the asymmetric (ATNR) and symmetric (STNR) tonic neck reflexes differ?

The ATNR is one of the classic neonatal reflexes that gradually fades away by age 6 months to allow independent reaching and head-turning. It is a fencer's pose: head turned toward the op­ponent with rapier extended, and opposite arm flexed at the elbow with finger pointed toward the shoulder. In contrast, the STNR is the only reflex that is not present at birth and again absent at the first birthday. It provides postural stability as the child makes the precarious transition from crawling to standing. Think of it as the "Aesop's fables" reflex: when the child's neck is flexed, the arms flex and the hips extend, recalling the "dog and the bone." If the neck extends, the arms extend and the hips flex, a perfect position for steadying oneself before attempting to pull up to stand, reminiscent of the "fox and the grapes."

What is the earliest age at which a child can learn to operate an electric wheelchair safely?

Children attain the cognitive and perceptual skills required to safely drive a motorized wheelchair around 3 years of age. Because exploration of surroundings through movement is one of the chief means of learning in early life, introduction of an alternative to ambulation for children for whom mobility is severely limited is desirable as early as possible. Don't forget that a child in a wheelchair requires the same vigilant supervision as any other rambunctious preschooler.

Is cerebral palsy caused by obstetrical misadventure?

Unfortunately, the perception that cerebral palsy is caused by something that went wrong at birth has been a part of popular folklore since its initial description by William John Little in 1868. This issue has since been scrutinized carefully by many epidemiologists. An association between asphyxia at birth and the development of cerebral palsy was detected in only about 3% to 13% of cases. Furthermore, cerebral palsy rates have not shown a decrease despite major im­provements in obstetrical and neonatal care between the 1950s and 1970s.

 Do Apgar scores predict cerebral palsy or mental retardation?

The Apgar score was developed to quickly identify the newborn infant in need of resuscita­tion and has little predictive significance for the development of neurologic problems—unless it is depressed at 15-20 minutes after birth. In a large multicenter collaborative project, 4.8% of surviving infants had Apgar scores of < 3 out of 10 at 1 minute. In this group, the risk of cerebral palsy was only 1.7%. However, 15% of infants who had 5-minute Apgar scores of < 3 had cere­bral palsy. A score of < 3 at 15 minutes was associated with mortality in about 53% of cases, with a risk for cerebral palsy of 36% in survivors.412                                        General Pediatric Rehabilitation

How do brain MRI scans correlate with gestational age and type of cerebral palsy?

Most children with cerebral palsy who were born prematurely had periventricular leukoma-lacia (PVL) on brain MRI. The second but much less common finding was posthemorrhagic porencephaly. Abnormalities seen at term or near term in children with cerebral palsy were border zone infarcts, bilateral basal ganglia-thalamic lesions, subcortical leukomalacia, and mul-ticystic encephalomalcia. Ninety percent of those with PVL were born prematurely.

In patients diagnosed with diplegia, most had PVL. In quadriplegic patients, term type brain injuries were seen in 22 of 45 patients and brain anomalies in 10 patients. In hemiplegics, 17 of 26 patients had unilateral lesions and 7 had bilateral lesions.

 Are acquired spinal cord injuries (SCIs) more common in children than adults?

No. The incidence of all new SCIs is 10,000 per year in the U.S., but only 3-5% of those are in children under 15 years of age. However, if a child acquires an SCI, he or she is more likely to develop tetraplegia (56% of cases in children) than an adult. This increased susceptibility to cer­vical injuries can be explained in part by more ligamentous laxity, shallow angulation of the facet joints, incomplete ossification of vertebral bodies, and relative underdevelopment of neck mus­cles for a relatively large, heavy head. There are also pediatric disorders predisposing to SCI such as Down syndrome, juvenile rheumatoid arthritis, and skeletal dysplasias.

What is SCIWORA?

SCIWORA is a medical acronym that stands for "spinal cord injury without radiographic ab­normality." About 20% of children under age 12 years having serious SCI do not have evidence of fracture or dislocation. The inherent elasticity of the fibrocartilaginous spine and its surround­ing soft tissue in the growing child is believed to account for the phenomenon. Fifty percent of children with SCIWORA have delayed onset of paralysis up to 4 days following injury. Therefore, every effort should be made at the time of presentation to rule out potential spinal in­stability with CT and controlled flexion-extension radiographs.

Should every child born with myelomeningocele have it surgically repaired?

Advances in surgical care and antibiotics have taken away the need for haste in decisions re­garding surgery. Charney et al. reported the relationship between time of surgery and eventual outcome in 110 newborns with myelomeningocele. They found no significant difference in mor­tality, development of ventriculitis, developmental delay, or worsening of paralysis among groups that were surgically repaired within 48 hours, 3-7 days, or 1 week to 10 months of life.

The fact is that currently most myelomeningoceles are surgically repaired shortly after birth and the children survive. Studies that look at functional outcome suggest that adults with myelomeningocele have difficulty achieving independence from parents, finding suitable living accommodations, and landing a reasonable job. The environmental support systems available to the child appear to be at least as important in determining life satisfaction as the severity of the medical condition.

Are there signs that help distinguish fractures resulting from child abuse versus acci­dental trauma?

Nonaccidental trauma to children unfortunately continues to be a serious health problem. A high index of suspicion, backed up by appropriate medical findings, is very important. Fractures suggestive of abuse include:

1.  Multiple fractures in various stages of healing

2.  Growth plate fracture

3.  Transverse metaphyseal fracture ("bucket-handle" fracture) near the growth plate of femur, tibia, and humerus

4.  Spiral fractures of long bones

5.  Unusual locations of fracture (posterior rib, sternum, scapula)

The above fractures are helpful in establishing the diagnosis of child abuse. If abusive head trauma is being considered, important nonskeletal associated findings include retinal hemorrhages and subdural hemorrhages (especially when multiple and of different ages). It is extremely im­portant to have a high index of suspicion when ruling out the possibility of a diagnosis of child abuse, because of the malignant nature of the syndrome and the significant risk of fatality follow­ing repeated episodes. Remember, we are all required by law to report any suspected abuse. If you're wrong, the result of the investigation is inconvenience and ruffled feathers. If you're right, the result may well be a saved life.

What is the Wee-FIM?

It's not just a small functional independence measure (FIM). Developed in 1987, the WeeFIM is a measure of functional abilities and need for assistance associated with disability in children age 6 months to 7 years. It can be used above the age of 7 as long as the child has delays in functional abilities. There are six subdomains which include items that are rated on a 7-point ordinal scale (from dependence to independence).

 What is the COAT?

COAT stands for Children's Orientation and Amnesia Test. It is a 16-item test of orienta­tion and memory designed for children recovering from traumatic head injury, which is easily ad­ministered at the bedside. It assesses three areas: general orientation, temporal orientation, and memory. Post-traumatic amnesia (PTA) is that period after the injury during which the brain is unable to store and recall new events or information. On the COAT, a score within 2 SD of the mean for age defines the end of PTA. The duration of PTA has been correlated with prognosis. In a controlled study by Rutter, children with PTA of < 1 week were doing well 27 months follow­ing injury. However, persistent psychiatric problems were noted in approximately 50% of chil­dren with PTA for > 1 week. PTA of > 3 weeks was associated with significant educational problems related to attention deficits and disinhibition.

 Does outcome after traumatic brain injury (TBI) follow the general pediatric brain injury rule that "outcome is better with earlier insults" (due to plasticity of the developing

Unfortunately, for younger children this is not the case. While some studies using narrower age ranges have shown no significant differences with age, others have shown that older children and adolescents do better than younger children.

Why does this not follow the general rule in pediatric brain injury? There are many possible explanations. Plasticity, which is so important in recovery from focal brain injuries (i.e., infantile strokes), may be at a disadvantage due to the diffuse nature of the injuries. The younger brain may be more susceptible to the effects of trauma due to its different physical (i.e., less myeli­nated) and neurochemical (i.e., increased excitatory amino acids) properties. Also, the mecha­nism of injury is different depending on age, which may result in differences in the primary injury. Also, if the injury results in deficits of new learning (which TBI does), the more one needs to learn in life, the more one is at a disadvantage.

Which groups are most at risk for injuries and therefore the focus of any injury pre­vention strategies in the rehab setting?

While the care and treatment of the patient with traumatic injuries are improving, prevention is the most effective intervention. Prevention should be given highest priority by any professional working with children.

Trauma is the major cause of childhood morbidity and mortality, and head trauma is the single most important determinant of the severity of injury and outcome. The incidence of TBI is highest in males aged 10-29 years, with the peak incidence between 15 and 19 years. A shocking statistic is that the estimated cumulative risk of brain injury for children through age 15 years is 4% in boys and 2.5% in girls.

Injury does not occur randomly across the population. Race and socioeconomic status are major determinants of risk. Death rates for unintentional injury among children < 15 years old vary with race: Native Americans > African-Americans > whites > Asian-Americans. For all races, injury death rates are inversely related to income level.

One of the most significant risk factors for a head injury is a history of previous head injury. This means that patients in a rehab setting are at higher risk for injury, which further highlights the importance of and need for injury prevention.

What injury prevention strategies are most effective?

The main principles of brain injury prevention include:

1.  Anything that can decrease the amount and rate of energy transfer will decrease the sever­ity of injury to the brain, if not prevent it entirely.

2.  Strategies that rely as much as possible on "passive" or automatic strategies are likely to be more effective than those based solely on behavioral change, especially since behavior changes are most difficult to achieve in the population at most risk (e.g., adolescents, the poor, the intoxicated).

3.  Strategies and recommendations should be focused and specific (e.g., don't say "be care­ful"—instead say "use a car seat, buy and use a bike helmet, and throw out the baby walker!").

Because of the limitations of education and other strategies in isolation, prevention will need to be approached from multiple simultaneous angles—passive strategies, education, financial in­centives (e.g., bicycle helmet coupons/subsidies), and "mandatory use" legislation. However, the first step is for all professionals working with children to remember the need for and importance of prevention.

Is there such a thing as executive function in children?

The executive system describes those mental processes necessary for formulating goals, planning how to achieve them, and carrying out the plans effectively. Executive function can also be thought of as those processes that allow mental flexibility—the ability to mentally initiate and sustain thoughts and plans appropriately, inhibit unwanted thoughts and actions, and yet mentally "shift gears" when appropriate. Remember the mnemonic ISIS—initiate, sustain, inhibit, shift.

Executive dysfunction is commonly seen in children after closed head injury (as it is in adults). As with many other functions, it is developmental in nature and may become more obvi­ous (and testable) with increasing age..

In children with spastic quadriplegia, also described as 'whole body involvement', spasticity can interfere with motor function, contributes to the development of deformities and adversely impacts on care, positioning, and comfort. In this population, spasticity interventions address goals such as improving comfort, reducing pain, easing the burden of carers, slowing the progression of musculoskeletal deformities and perhaps improving function. Children with severe diplegia are distinguished from those with quadriplegia by their ability to ambulate, as well as by a greater emphasis being placed on functional motor goals even though similar treatment modalities are often employed to manage spasticity. The many treatment options currently available include, but are not limited to, botulinum toxin type A, phenol neurolysis, oral medications, intrathecal baclofen, selective dorsal rhizotomy, and orthopaedic surgery. The integration of these treatment modalities can help to optimize the overall care and function for a child with spastic quadriplegia or severe diplegia. However, the development of a management programme is complex and needs to take into account many factors, including age, weight and nutritional status, rate of progression of musculoskeletal deformities, developmental potential, comorbid conditions, current functional status and prognosis, and family and patient treatment goals. Children with marked spasticity are likely to benefit from a combination of interventions, rather than a single treatment modality. Because of these complexities, management should be planned and coordinated by a multidisciplinary team of medical and allied health professionals which recognizes the central role of the family in all decisions. Once the special characteristics of the child with spastic quadriplegia and the various treatment options are understood, outcomes can be maximized.

 

MEDICAL REHABILITATION OF GYNAECOLOGICAL PATIENTS.

 

PHYSIOTHERAPY IN THE CHIL-DBEARING YEAR

The women's health physiotherapist works as part of the multidisciplinary team caring for the pregnant woman, along with obstetricians, general practitioners, midwives, health visitors, occupational therapists, social workers or other physiotherapists. Contact with the pregnant woman may be in the community, health centre, leisure centre or the physiotherapy department. The role of the women's health physiotherapist is to:

   educate the pregnant woman for pregnancy, labour and beyond (see the section on antenatal classes)

   advise on safe and appropriate exercise (see the section on exercise and pregnancy)

   identify, assess and treat musculoskeletal problems (dealt with in this section).

Pelvic Floor Dysfunction

See the section on urogenital dysfunction. During pregnancy, physiotherapists may consider it prudent to limit their intervention to advice.

Spinal and Pelvic Pain

Spinal and posterior pelvic (sacroiliac) pain is common during pregnancy with an incidence described variously as ranging from 50% to 70% (Mantle et al. 1977; Fast et al. 1987; Berg et al. 1988; Ostgaard et al. 1991; Mantle 1994; Russell et al. 1996; Heiberg and Aarseth 1997). It is often regarded as 'a normal part of pregnancy' but, without appropriate treatment, a minor episode may develop into a chronic problem. A third of women report severe back pain that interferes with daily life and compromises their ability to work (Ostgaard et al. 1991; Mens et al. 1996). Most backache resolves in the first few weeks postpartum, but for some may continue for 18 months (Ostgaard and Andersson 1992), or may present postpartum for the first time (Russell and Reynolds 1997). Some patients may expe­rience a relapse around menstruation and in a subse­quent pregnancy (Mens et al. 1996).

The anatomical origins of peripartum spinal and pelvic pain vary and are difficult to determine and diagnose (Nilsson-Wikmar and Harms-Ringdahl 1999). Women describe pain variously as occurring in the low back, sacral, posterior thigh and leg, pubic, groin and hip areas. These may occur simultaneously or separately, antenatally, during delivery or postnatally (Heiberg and Aarseth 1997). There is often associated cervical, thoracic or coccygeal pain. Sciatic pain is com­mon and may be of lumbar origin or from sacroiliac joint involvement as the L5 and Si components of the lumbosacral plexus run immediately anterior to the sacroiliac joints.

Postural adaptations, fatigue, increased joint mobil­ity, increased collagen volume causing pressure on pain sensitive structures, weight gain, and pressure from the growing fetus may all contribute to spinal and pelvic pain (Polden and Mantle 1990). Poor passive stability from lax joints plus poor active stability from altered muscle recruitment and stretched pelvic and abdomi­nal muscles probably contribute to spinal and pelvic pain (Watkins 1998; Coldron and Vits 2001). Other musculoskeletal factors include physically strenuous work and work involving bending, twisting, lifting and sitting (Heiberg and Aarseth 1997), large abdominal sagittal and transverse diameters and a naturally large lumbar lordosis (Heckman and Sassard 1994), pre­pregnancy low back pain, and decreased fitness level before pregnancy (Ostgaard et al. 1993). Pelvic pain appears to be associated particularly with high mean relaxin values (Kristiansson 1997) or a susceptibility to relaxin and the other hormones of pregnancy (MacLennan and MacLennan 1997), parity (Heckman and Sassard 1994), weight of the newborn, and smok­ing (Ostgaard 1997).

Conclusive association between new-onset postpar­tum backache and epidural analgesia has not been demonstrated. (Breen et al. 1994; Macarthur and Weeks 1995), though the masking effect on pain may lead to women adopting unsuitable positions in labour (Macarthur et al. 1990; Russell et al. 1993).

Management of spinal and pelvic pain and dysfunction

Advice, posture, education and general exercise

Antenatal education on posture and back pain by a physiotherapist has been shown to reduce back and pelvic pain, reduce sick leave and continue to benefit women in the postnatal period (Noren et al. 1997). Advice in pregnancy includes adopting comfortable resting positions, advice on moving out of bed, chair or car, advice on postures in walking and standing, and advice on lifting and handling. In addition, postnatal advice includes positions for breast-feeding, nappy changing, bathing and handling the growing baby.

Treatment of articular/joint dysfunctions

Peripartum spinal and pelvic pain often responds to manual therapy, though correct assessment of the spine and pelvis is imperative to enable treatment to be tar­geted at the correct structures. Common conditions include unilateral sacroiliac dysfunction, symphysis pubis dysfunction, minor lumbar disc herniation, lum­bar zygapophyseal joint problems, thoracic spine pain and coccydinia.

Manual therapy techniques used for joint hypomo-bility/dysfunction in the non-pregnant population can be utilised, but with appropriate precautions. Abdominal, spinal and pelvic muscle recruitment needs to be retrained to stabilise an unstable spinal segment or sacroiliac joint.

TENS may be used postnatally, but the use of TENS antenatally is controversial. Current advice recommends that TENS should not be used before 37 weeks gestation because of unknown effects on the fetus and the hypothetical risk of possible induction of premature labour.

The use of a sacroiliac/trochanteric belt for sacroiliac and symphysis pubis instability both ante-and postnatally may decrease pain (Mclntosh 1995; FryI lay 5 rnysiorrierupy and Tudor 1997) and substitute the work of the internal oblique muscle (Snidjers et al. 1998). A large tubular bandage for the abdomen, or maternity belt, may give added support.

Costal margin pain along the anterior surface of the lower ribs (possibly related to pressure from the ascending uterus, and commonly called 'rib flare') may be accompanied by thoracic spinal and lateral chest pain. This may be relieved by side flexion manoeuvres away from the pain, and manual therapy techniques.

Muscle re-education

Non-obstetric research on patients with spinal instabil­ity problems and low back pain has shown active trunk stabilisation programmes to be of benefit (Richardson et al. 1990; Richardson et al. 1993; Jull et al. 1993; O'Sullivan et al. 1997; O'Sullivan 2000). In addition, postpartum rehabilitation of pelvic and abdominal muscles is believed to increase active stability of the pelvis (Vleeming et al. 1992).

Rehabilitation exercises antenatally and postnatally should concentrate initially on correct recruitment of both pelvic stabilising muscles (gluteus medius and maximus) and prime spinal stabilising muscles (trans-versus abdominis, lumbar multifidus, pelvic floor mus­cles). Exercise for global stabilising muscles such as the oblique abdominals, erector spinae, latissimus dorsi, and iliopsoas should follow, though probably only postnatally.

Divarication of the recti abdominis should gradu­ally reduce after delivery, so exercises at 6 weeks post­natally should include those that shorten the muscle. Once core stability has been gained, the woman should be encouraged to increase her strength, and general aerobic and cardiovascular fitness.

Rehabilitation exercises need to be functional, as many women cannot regularly attend a physiotherapy department owing to family commitments.

Symphysis Pubis Dysfunction/Diastasis

Symphysis pubis dysfunction (SPD) is a relatively com­mon complaint with varying incidence figures of 1 in 300 (Kubitz and Goodlin 1986) to 1 in 800 (Scriven et al. 1995). It may occur antenatally or during delivery, and cause severe social difficulties (Fry 1999).

SPD may occur because of an abnormal separation of the symphysis pubis (diastasis). However, the amount of symphyseal separation does not always cor­relate with symptoms (Snow and Neubert 1997) and not all symptomatic patients have an increased gap. The abnormal symphyseal gap may vary from 10 mm

to 35 mm and vertical mobility may be more than 50 mm (Gamble et al. 1986). The width is less impor­tant than reduction of the gap over time in determin­ing likely outcome of the condition.

Common complaints are severe pain in the groin, anterior thigh and sacroiliac joint, pain on abduction of the thighs, shuffling or waddling gait, severe sym­physeal tenderness, and an inability to weight-bear uni­laterally (Fry 1999). Minor trauma may cause pelvic joint asymmetry. A forward rotation and oblique slip of the innominate caused by overactivity in the adductor muscles of the thigh may contribute to SPD (Rost 1999). With poor use of the glutei and lack of force closure of the pelvis, disruption of the self-locking mechanism of the pelvis ensues.

Management of SPD

SPD is often associated with sacroiliac joint dysfunc­tion and can be treated by all of the methods described above with the aim of restoring pelvic ring stability (Fry 1999). Special attention should be paid to overac­tive pelvic adductors, underactive abductors, unilateral iliac displacement (Rost 1999) and poor pelvic and spinal stabilising muscles. Advice regarding unilateral weight-bearing activities and hip abduction should be given. Crutches, or in the most severe cases a wheel­chair, may be required.

Liaison with midwives is essential. Women should be aware of the masking effect of epidural and spinal anaesthesia in relation to excessive abduction of hips during labour and delivery. If possible, they should adopt the most comfortable position during labour (for example left-side-lying, or kneeling upright with support). They should be discouraged from placing their feet on attendants' hips and care should be taken if lithotomy is required. Suturing should take place in the most comfortable position for the mother (ACPWH 1996).

Diastasis Rectus Abdominis (DRA)

Diastasis rectus abdominis (DRA) is an excessive gap between the bellies of rectus abdominis at the level of the umbilicus (Boissonnault and Blaschak 1988). It normally appears in pregnancy but can occur during the second stage of labour. The gap may be as wide as 20 cm and can extend the whole length of the linea alba (Polden and Mantle 1990). There has been a reported incidence of 66% of DRA during the third trimester that may persist in 30-60% of cases in the postpartum period (Boissonnault and Blaschak 1988). The period of resolution in the postnatal period is controversial (Gilleard and Brown 1996; Hsia and Jones 2000).Risk factors include older women, multiparity, cae-sarean section, multiple gestations, larger babies and greater weight gain (Lo et al. 1999). It has not been established whether DRA is a factor in low back or pelvic pain but it is thought to interfere with the sup­portive and expulsive functions of the abdominal wall.

Management of DRA

It is advisable for physiotherapists to examine the gap manually in postnatal women and assess the degree of separation. Advice regarding exercise should then be given, including initial training of the deep abdominal muscles (transversus abdominis) (Potter 1997) and avoidance of strong trunk curling exercises.

Nerve Compression Syndromes

Fluid retention may occur during the third trimester, which can lead to a variety of nerve compression syn­dromes. These include carpal tunnel syndrome (CTS), brachial plexus compression, meralgia paraesthetica (compression of the lateral cutaneous nerve of the thigh as it passes under the inguinal ligament, present­ing as tingling and burning in the outer thigh) and pos­terior tibial nerve compression. These entrapments normally resolve postpartum.

Wrist splints and ice are useful for CTS. Postural advice can be used for brachial plexus compression. Ice and elevation may help posterior tibial nerve compres­sion (Polden and Mantle 1990).

EXERCISE AND PREGNANCY

General Issues

Physiological, emotional, social and psychological issues influence physical fitness in pregnancy. The physiotherapist must be sensitive towards these, and be aware of other issues such as language, ethnic cultures, equal opportunities and women with special needs. The therapist's approach to the pregnant woman should be holistic, flexible, individual, and - where available - evidence-based.

Many women now incorporate regular exercise into their lifestyle, and wish to continue during their preg­nancy. A significant minority of women decide to take up exercise for the first time when they become preg­nant.

The research available suggests that mild to moder­ate exercise is beneficial to the healthy pregnant woman (Clapp 2000) and is not harmful to the fetus (Riemann et al. 2000; Clapp et al. 2000; ACOG 2002). Moderate intensity is defined as being able to talk easily, whilst increasing the heart rate to a maximum 140 beats per

minute. Choice of exercise must be influenced by the physiological changes, which will occur. For example, plasma volume increases before red cell volume, lead­ing to a decreased ability to provide oxygen in response to demand. Also, increased demand causes raised respi­ratory rates, cardiac output values increase during pregnancy for the same activity (over the non-pregnant woman), and there is a loss of cardiac reserve. Strenuous activity might compromise the mother's health, and that of the fetus.

Benefits and Contraindications

Potential benefits of exercise include:

   maintenance of cardiovascular fitness

   maintenance of healthy weight range

   improvement of body awareness, posture, coordina­tion and balance

   improvement in circulation

   increase in endurance and stamina

   provision   of   social   interaction   with   exercise, enhancing feelings of social and emotional well-being

   possible reduction in problems during labour and delivery

   potentially shorter labour

   possible prevention of gestational diabetes

   reduction in minor complaints of pregnancy

   more rapid postnatal recovery.

Contraindications to exercise include:

   cardiovascular, respiratory, renal or thyroid disease

   diabetes (type \, \f poorly controlled")

   history   of  miscarriage,   premature   labour,   fetal growth restriction, cervical incompetence

   hypertension, vaginal bleeding, reduced fetal move­ment,   anaemia,   breech   presentation,   placenta praevia.

Advice

The advice given to regular and non-regular exercisers will differ.

Regular exercisers

   Consult your doctor or midwife before beginning exercise.

   Exercise  at  a  moderate level  most  days  for  30 minutes or more.

   Discontinue contact sports, and activities  which carry a high risk of falling or abdominal trauma.

   Self-regulate both the level of intensity and duration of exercise, aiming to keep core temperature below 38°C.

   Aim for low impact activity.

   Wear suitably supportive footwear to reduce mus­culoskeletal stresses.

   Maintain adequate fluid intake to prevent dehydra­tion, and avoid exercise during hot and humid weather, or with pyrexia.

   Warm up and cool down for at least 5 minutes.

   Do not use developmental stretching (because of the effects of relaxin).

   Seek professional advice on specific exercises (e.g. for the pelvic floor muscles).

   Avoid ballistic exercise, low squats, crossover steps and rapid changes of direction.

   Do not exercise in the supine position after 16 weeks gestation, to avoid aortocaval compression.

   Eat to appetite without calorific restriction.

   Work towards cross training to avoid over training, and stop exercise before fatigue sets in.

Non regular exercisers

In addition to the above, women not used to regular exercise should be advised on the following.

   Do not start an exercise programme until > 13 weeks gestation.

   Consider    beginning    with    non-weight-bearing exercises such as aquanatal.

   Progress from simple and basic levels of exercise, increasing exercise tolerance gradually, under the supervision of a suitably qualified professional.

 

When to stop

All women should stop exercising immediately and seek advice from a doctor if they experience:

   abdominal, back or pubic pain

   PV (from the vagina) bleeding

   shortness of breath, dizziness, faintness, palpitations or tachycardia

   difficulty in walking.

Most women will naturally reduce the amount of exer­cise they take during pregnancy as their weight increases, and they fatigue and become breathless more rapidly.

Types of Exercise

General categories

   Walking and swimming. The pace adopted should be sufficient to cause aerobic changes. If pelvic pain is

a problem, avoid the kicking motion of the legs during breaststroke swimming.

   Low impact aerobics (or equivalent classes). The emphasis is on maintaining fitness levels.

   Pilates or yoga (modified for pregnancy). These cater for the non-aerobic elements of fitness - flexibility, control of breathing and relaxation.

   Back care classes. Core stability exercises may be taught, sometimes using a Swiss ball.

   Gym work. The pregnant woman may have access to a static bicycle, treadmill or cross trainer, all of which encourage aerobic activity.

 

Technique is especially important when strength training. Women should use light weights, with sub-maximal lifts, aiming to use both upper and lower body muscle groups in a variety of exercises. Weights, sets and repetitions should be decreased further as pregnancy progresses.

Aquanatal classes - water-based exercise groups designed specifically for pregnant and postnatal women - have grown in popularity in Britain in recent years. Pregnant women find exercise and relaxation in water enjoyable and beneficial, largely because of the feeling of weightlessness and reduced jarring of the joints. It has been suggested that a woman submerged up to the level of the xiphisternum will experience only 28% of her bodyweight (Harrison and Bulstrode 1987).

Women in aquanatal classes may notice that they get relief from aches and pains, feel they have more energ, after the class, and sleep better. Another importan benefit is the absence of post-exercise muscle soreness because, during immersion, all muscle work is concen­tric (Newham 1988).

Other significant advantages are less obvious to the women themselves: exercise in water helps to tone the respiratory muscles; the leg movements of swimming and exercise in water aid venous return; and the diuretic effect of immersion is helpful to a pregnant woman troubled by fluid-retention as immersion for 20-40 minutes results in a loss of 300-400 mL of fluid (Katzetal. 1991).

Women must be screened by the teacher for any rel­evant musculoskeletal problem or contraindication (ACPWH 1995). Exercises can be amended to accom­modate back, pelvic girdle, neck or other orthopaedic problems. Pregnant women with sacroiliac or symph­ysis pubis discomfort should be advised to modify their breaststroke leg movements and take small, rather than wide, steps sideways. All women should take short backward steps to avoid an increase in lumbar lordosis.

Exercises that will overstretch the already compromised abdominal muscles should be excluded.

Conversely, squatting, which is difficult on land and thought by some to be damaging, is safe in water as vir­tually no weight goes through the knee joints.

The "aim of the class is to help maintain, not improve, a woman's level of fitness. Exercises must be safe and carefully chosen, and each included for a rea­son. Water exercises should be considered in their own right and not taken unchanged from exercise classes on land (Evans 2002). Standard antenatal exercises, such as pelvic tilting, pelvic floor exercises, and hip and shoul­der circling (with the shoulders immersed) can usefully be included. Hydrostatic pressure on the ribcage makes exercises like gently blowing a table-tennis ball across the water valuable in toning respiratory muscles. Good posture should be taught at the beginning of the class, and participants reminded to maintain it throughout. If the water is warm enough, a relaxation session is an excellent way to end the class.

Antenatal classes

Midwives, physiotherapists and health visitors typically run antenatal classes, though the latter are more usually involved in postnatal groups. Classes can take many different formats, and vary in number and timing to suit the needs of the women and their partners.

'Early bird' groups are held around 16 weeks of ges­tation and consist of one or two classes by a midwife and a physiotherapist, though other speakers might be invited (e.g. dietitian). As most women will be working at this stage, these classes are usually held in the evening.

The physiotherapist's role is to discuss the changes in pregnancy, how these will affect the working woman, and how to adapt to the changes. One of the most important topics is correct postural alignment and care of the back during pregnancy, to alleviate backache and prevent long-term problems. Women's work activities will be discussed and advice on seating, lifting etc. given. The structure and function of the pelvic floor muscles and the importance of pelvic floor exercises to prevent long-term continence problems will be explained. Transversus abdominis and pelvic floor exercises will be taught and the importance of bringing these muscles into everyday functional activities dis­cussed. Relaxation techniques can be introduced, to be used during pregnancy, labour and for the rest of the couples' lives.

The majority of the classes are held later in preg­nancy from about 30 weeks onwards, and may be during the day, evening, or at the weekend. Women only or couples may attend. The classes may be for first-time mothers/parents, or for women who have had previous pregnancies. Commonly they include a

mixture of both. In some large hospitals there will be classes for twin pregnancies, for elective caesarean deliveries, and teenagers. These groups will benefit from meeting other women/couples in a similar situa­tion. Where appropriate, classes may be held for women of a particular ethnic group, in their own language if necessary.

Classes are held centrally in the hospital where the baby will be born and/or in local health centres.

The physiotherapy input to the later antenatal classes will include:

   the changes in pregnancy, good posture in standing, sitting and lying

   the practice of transversus abdominis and pelvic floor exercises, relating these to functional activities

   advice on back care and prevention of long-term problems

   exercises for the circulation

   breathing awareness and adaptations, relaxation and positions of comfort

   coping strategies for labour

   advice on sport and leisure activities

   early postnatal exercises and advice.

Midwives will discuss care in pregnancy, labour, feed­ing and baby care.

Ideally the classes are held once a week for 5 or 6 weeks. However, the physiotherapy content may have to be prioritised to fit into one 2-hour session, accord­ing to the availability of resources.

Postnatal physiotherapy

The role of the physiotherapist in the days, weeks and sometimes even months following the birth includes advice for the new mother on how to regain and perhaps improve her former level of fitness through appropriate exercise and education. Also included is the assessment and treatment of specific physical prob­lems, emotional support, and health education. Contact with the new mother may be in the postnatal ward, as an outpatient in the physiotherapy depart­ment, or in community-based postnatal groups.

Although it might be considered the ideal for every woman to be advised by a women's health physiothera­pist postnatally, this is becoming increasingly uncom­mon. Many women will not be seen by a physiotherapist, but should be given appropriate literature.

Physiotherapy intervention may be limited to some or all of the following.

Caesarean section

Education during antenatal classes may help to prepare the mother for a caesarean. Postnatally, the physiother apist should be aware of the reasons for the caesarean and offer emotional support and advice when required. Bed exercises and mobility followed by early ambula­tion reduce the risk of respiratory problems, back pain or deep venous thrombosis. Wound haematomatas may respond well to ultrasound or pulsed electro­magnetic energy (PEME). Abdominal and pelvic floor exercises and optimal feeding postures should be taught.

Painful perineum

A prolonged or difficult delivery, episiotomy or an extended tear may result in a bruised, painful and oede-matous perineum. Physiotherapeutic interventions might include ice packs, PEME, pelvic floor exercises (to increase blood supply and aid healing), advice on supported defaecation, and the use of pillows under each buttock when sitting to prevent pressure on the wound. Scar tissue may cause longer-term pain or psy-chosexual problems.

Incontinence

Urinary or faecal urgency and incontinence can occur after delivery, particularly after a prolonged second stage, episiotomy, instrumental delivery, or delivery of a large baby. Initial treatment can comprise advice and pelvic floor exercises (Morkved and B0 2000). Persistent pelvic floor dysfunction should always be assessed and treated (see the section on urogenital dysfunction).

Musculoskeletal problems

See the earlier section on musculoskeletal problems in the childbearing year.

Postnatal groups

Many new mothers find difficulty adjusting to, and car­ing for, a baby during the first few weeks. Extreme fatigue may result. Physiotherapists are well placed to motivate women, encouraging them to attend postna­tal groups, support groups, relaxation or exercise classes. Input from a team of health professionals pro­vides education and information on a wide range of topics, relevant to the new mother. Physiotherapists may lead a low-impact aerobics or Pilates exercise class, teach baby massage, or hold discussion/support groups. They should be aware of the development of new or previously undisclosed symptoms (e.g. postna­tal depression) and be instrumental in referring the sufferer to an appropriate health professional. Postnatal groups promote a positive outlook, reinforcing healthy living for life.

UROGENITAL DYSFUNCTION

Problems relating to the female urinary and ger tracts are common and often complex. Increasii physiotherapy is the first line of treatment. The pi lems encountered most frequently are bladder dysfi tion and genital prolapse.

Bladder Dysfunction

Most common is urinary incontinence, which occur at any time in a woman's life, but incidence with age. A study of women aged 50—74 found that s leakage of urine was reported by 47%, and regular 31% (Holtedahl and Hunskaar 1998); other au1 report similar findings. Four categories of incontin are described: stress, urge, retention and neurogenic it is important to distinguish between these.

Stress urinary incontinence

This was originally termed 'retention with overflow' and may be acute or chronic.

In hypotonic ('floppy') bladders, the normal response to the increase in pressure, which occurs during filling, may be absent, and the detrusor fails to contract. Retention is associated with outflow obstruction (e.g. in men with prostate disease), neuropathy, low spinal cord lesions, radical pelvic surgery and multiple sclero­sis, or it may be secondary to drug therapy (especially with psychotropic drugs). Incontinence sometimes, but not always, occurs with retention.

Neurogenic detrusor overactivity

This term replaces 'hyperreflexia'  and describes bladder dysfunc­tion of neurological origin.

Neurogenic detrusor overactivity occurs in the pres­ence of a suprasacral cord lesion where the bladder is isolated from cortical control (e.g. cerebrovascular incident, tumour, spinal cord injury or multiple sclero­sis). One of the earliest symptoms of multiple sclerosis may be urinary urgency an"d it is important that phys­iotherapists be aware of this.

Genital Prolapse

Pelvic organ prolapse is the descent of one or more of:

  the anterior/posterior vaginal wall (known as cysto-cele and rectocele respectively)

  the top of the vagina (cervix, uterus)

  or the vault (cuff) after hysterectomy.

Symptoms include the feeling of a lump ('something coming down'), low backache, heaviness and dragging sensation, or the need digitally to replace the prolapse in order to defaecate or pass urine. It can occur with other lower urinary tract dysfunction and may mask incontinence.

 

Prolapse occurs when the fibromuscular supports of the pelvic organs fail. Fifty per cent of parous women (those who have had children) have some degree of genital prolapse but only 10-20% are symptomatic. Severity increases with age (Sultan et al. 1996). Norton (1990) reports a link between joint hypermobility, the presence of striae ('stretch marks') and prolapse, features which are present in other connective-tissue disorders. It is suggested that some women exhibit an immature collagen type and that total collagen content maybe reduced significantly (Jackson et al. 1995), lead­ing to genital prolapse.

A trained pelvic floor will contract reflexly in response to a sudden rise in intra-abdominal pressure, thereby limiting downward movement of the organs and reducing the risk of damage to their supports. A voluntary contraction performed before such episodes (e.g. coughing, lifting) will afford protection and should become a life-long habit.

 

 

 

Factors Contributing to Urogenital Dysfunction

It is widely accepted that urogenital problems are asso­ciated with vaginal delivery (Wilson et al. 1996; Toozs-Hobson 1998). For many women, childbirth is probably the most significant factor contributing to the development of symptoms. Allen et al. (1990) suggest that a woman's first vaginal delivery causes muscle, fas­cial and nerve damage, and it is likely that further dam­age will occur with future deliveries. Chiarelli and Campbell (1997) suggest that forceps delivery increases this risk. There are other reported risk factors: preg­nancy itself, straining at stool, heavy lifting, inappro­priate exercise, chronic cough, obesity, pelvic surgery, hormonal status and ageing.

PELVIC FLOOR EXERCISES______________

Women with stress, stress with urge, and urge incon­tinence and/or genital prolapse may all benefit from specialist physiotherapy.

The pelvic floor muscles have a significant role to play in the continence and organ support mechanisms; they contribute to urethral closure pressure and pro­vide tonic inhibition to the bladder. They are capable of a brisk forceful contraction to counteract a rapid rise innays rnysioinerapy

 

Key point

A Department of Health report (1997) states that 'all women presenting with incontinence should be offered, as a minimum, one-to-one training, vaginal exami­nation to determine correct muscle action, and three months' exercise taught by a specialist physiotherapist or other professional with specialist knowledge.'

intra-abdominal pressure or to suppress a sudden com­pelling need to void.

Bump et al. (1991) state that all women presenting with pelvic floor dysfunction should undergo a digital vaginal examination to ensure correct muscle action. Their research demonstrated that fewer than 50% of women were able to perform an optimal or correct pelvic floor contraction when given verbal or written instruction only, and that the feedback provided by digital examination is the only way to ensure appropriate pelvic floor muscle activity

Teaching Pelvic Floor Exercises

Many widely differing exercise protocols are described in the literature and, unfortunately, no standardised outcome measures have been employed to allow evalu­ation. It is generally accepted, however, that certain principles are fundamental to success. One protocol is described in the boxed text.

Exercising your pelvic floor

Imagine that you are trying to stop yourself from passing wind, and at the same time trying to stop your flow of urine in mid-stream. The feeling is one of 'squeeze and lift', closing and drawing up the back and front passages. Continue the lift for as long as you can (up to 10 seconds). Release and rest for several seconds.

Repeat as many times as you can (up to a maximum of 10 repetitions at a time). This will help to increase the endurance of your pelvic floor muscles.

It is important to do this without tightening your buttocks, holding your breath or squeez­ing your legs together. You may feel your lower abdomen working at the same time, in the area just above your pubic bone.

It is also important that the muscles are able to react quickly to stop leakage with coughs, sneezes etc. Practise tightening hard and fast, then relaxing immediately.

Both these exercises can be practised any­where, at any time and in any position, but not while emptying your bladder.

Specificity, overload and maintenance Gilpin et al. (1989) demonstrated that the pelvic floor exhibits 65% type 1 fibres and 35% type 2, although these proportions vary depending on the subject's age, parity, hormonal status and the pelvic floor muscle site which is sampled. An exercise regimen should include work for both fibre types specifically.

Type 1 fibres exhibit tonic activity and are engaged at lower levels of work and during maximum sustained contraction. Type 2 fibres are recruited during maximal pelvic floor activity, producing a brisk forceful contrac­tion but fatiguing rapidly. Overload is developed by increasing the exercise frequency and duration appro­priately as muscle function improves. Maintenance of improved function requires that exercises be continued for life.

Although sometimes suggested as an exercise, midstream stop of urine is strongly discouraged since it may contribute to incomplete emptying and infection.

The pelvic floor as a synergist

Traditionally, pelvic floor exercise has been taught in isolation of other trunk muscles. Although further studies are needed, there is some evidence that the pelvic floor forms part of the functional unit of local spinal stabilisation, acting in synergy with transversus abdominis and other segmental stabilisers (Sapsfordet al. 1997; Richardson et al. 1999). Appropriate training of transversus abdominis, therefore, may facilitate re­education of the pelvic floor.

Adjuncts to Exercise

The principal aim of physiotherapy is to strengthen the pelvic floor muscles, and the basis of treatment is an individualised exercise regimen that is progressed appropriately. Bo (1995) suggests that a successful out­come depends on 5-6 months of exercise, plus contact with the therapist. Other modalities may complement this programme, and might include biofeedback, neuromuscular electrical stimulation (NMES) and behavioural modification.

Biofeedback

Biofeedback may be via electromyography or a I pressure sensor. The woman receives immediate visual information regarding her pelvic floor activity I and is able to modify/increase her effort accordingly, I This can provide high levels of motivation. Because I of the many variables involved, biofeedback does not I measure muscle strength but simply monitors ij trend.Electrical stimulation

NMES is not an alternative to voluntary exercise, but an additional means of strengthening and improving the function of a weakened pelvic floor. Detrusor inhi­bition may be achieved by targeting the sensory affer­ent fibres of the pudendal nerve, using a frequency of 5-10 Hz. Higher frequencies of 30—50 Hz will reinforce cortical awareness and stimulate the type 2 fibres to produce a contraction.

Behavioural modification

Many women experience urinary frequency. Pressure from a prolapse, urgency or the belief that keeping the bladder empty of urine will prevent involuntary leak­age may all be contributing factors. Bladder training aims to increase gradually both the amount of urine passed and the intervals between voiding. Normal bladder capacity is 350-500 mL, and this capacity can be sustained only if the muscular bladder remains compliant. Allowing it to fill to normal volumes will maintain its elasticity.

TENS and Obstetrics and Gynecology

A systematic review of the literature found TENS to be of little use in relieving

labor pain. Randomized trials were hampered by poor blinding techniques. They

report that only three of eight studies demonstrated a positive result. The only

study with appropriate blinding methods and with a positive result used a postlabor

recall of pain score. The pain score was lower in the TENS group versus the

sham TENS groups. However, in the pain scores taken during the labor were no

different between the groups.83 A study using TENS to treat low-back pain specifically during labor found no difference between TENS and the standard treatment

Electrical Modalities in Musculoskeletal and Pain Medicine

of massage and mobilization. Comparison of TENS to sham TENS yielded no difference in first-stage labor pain as judged by the amount of reduction in self-administered analgesia. All of these studies used a variety of frequencies, pulse durations, placement of electrodes, and duration of treatment, making comparison

difficult. There is a suggestion that electrical stimulation can improve circulation.

A recent Cochrane Review of the literature found no supporting studies for the use

of TENS to improve blood flow in placental insufficiency.

In a cross-over design, women with dysmenorrhea were treated with 100 Hz TENS, Ibuprofen, both TENS and ibuprofen, or sham TENS (no electricity delivered). The subjects were not adequately blinded given a cross-over design. For the active TENS unit, subjects were asked to adjust the amplitude of stimulation to a comfortable tingling sensation. Thus, the subjects would be aware of a sham TENS that did not deliver electricity. Regardless, there were no significant differences in pain and symptom relief with TENS. Ibuprofen consistently improved pain measures.  In a small study comparing intrauterine pressure, contractions and pain with dysmenorrhea, women experienced significant relief with either naproxen or 70-100 Hz TENS with high amplitude (40-50 mA). Only the naproxen group experienced reductions in intrauterine pressure and contractions.60 Unfortunately, the study was not blinded.

A comparison trial of TENS alone, lignocaine injection alone, and TENS combined with lignocaine was performed for the treatment of pain related to cervical laser treament. TENS alone or in combination did not provide any analgesic effects compared with lignocaine.12 In a double-blinded randomized, controlled trial using a wrist-adapted TENS unit for the treatment of chemotherapy-related nausea, no difference was found in the intensity of the nausea or the percentage of persons with nausea.  However, all subjects were treated with antiemetics, diluting the possible effects of TENS. Overall, further study needs to be conducted to determine whether certain stimulus parameters might benefit obstetric and gynecologic patients.

Reproductive System

The female reproductive system is influenced by exercise. A wide spectrum of

menstrual dysfunction has been found in athletes and some women involved in a

vigorous exercise program.  Ovarian function and menstrual regularity depend

on normal pituitary gonadotropic stimulation. Gonadotropin levels were found to

be too low or below normal in women long-distance runners, reflecting central

suppression of the reproductive axis. Hypothalamic hypofunction has been shown

to be the cause of pituitary hypofunction; however, the cause of hypothalamus dysfunction in has not be eanth linetveesstigated. Delayed menarche, oligomenorrhea, anovulation, and amenorrhea are the most common documented menstrual dysfunctions in female athletes.2122 Exercise-induced menstrual irregularity is multifactorial in origin and is a diagnosis of exclusion. Reduction of exercise levels and dietary modification can produce dramatic changes in menstrual function.

There is an association between body fat composition and initiation and maintenance of menstrual periods. Seventeen percent body fat is required for initiation of menstruation, and 22% body fat is required for maintenance of menstrual periods. Athletes who have amenorrhea are shown to have a lower percentage of body fat or a lower body weight.

 

 

MEDICAL REHABILITATION OF PATIENTS WHICH SUFFERED FROM ACCIDENT ON CHORNOBIL’S ATOMIC STATION (AS)

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Radiation sickness is caused by exposure to radioactive sul stances. These are elements made up of unstable atoms thi give off energy as the result of spontaneous decay of the nuclei. If the energy released by a radioactive element is stron enough to dislodge electrons from other atoms or molecule in its path, it can damage or even kill living tissue. This typ of radiation is called ionizing radiation. Even if only one eel is exposed to radiation, the radiation can destroy, damages alter the makeup of that cell. The alteration of cell struchu by radioactive particles can lead to the development of cancel If a cell's DNA is damaged, this can cause genetic mutation that can be passed down to offspring.

The type and extent of damage done by exposure I radiation depends on the total dose of radiation receivec the length of time over which it was received; and thesiz and location of the body area involved. Damage obviousl tends to be worse with greater degrees of exposure. Thi may be modified, however, by the length of time involve

Ai Chi (Aquatic Tai Chi)

Developed byjun Konno from Tokyo, Japan, ai chi, or aquatic tai chi, uses tai

chi techniques. The benefits include increased flexibility and ROM, improved circulation of energy along important acupoint meridians, decreased stress, increased mental alertness, improved kinesthetic awareness, and enhanced breathing through learned yogic breathing techniques. Diagnoses treated with ai chi include orthopaedic injuries, neurologic diseases, anxiety or depressive disorders, rheumatic diseases, fibromyalgia, cardiac conditions, respiratory diseases, and prenatal and chronic pain. A benefit to ai chi is that it can be performed independently once the patient has learned a safe program that is appropriate for his or her needs.

Burdenko Method

The Burdenko method, developed by Igor Burdenko, is a combination of water

and sports therapy. The methods are an application of water and land based exercises to maintain health and quality of life and to enhance physical performance.

His method combines the advantages of both water and land, using both shallow

and deep-water activities. The Burdenko method is based on six qualities: balance,

coordination, flexibility, endurance, strength, and speed.

This method challenges the COG on land and COB in water. Water characteristics

include working in a vertical position in deep water, exercising in multiple directions, exercising at different speeds, and beginning in deep water and progressing to shallow water. This interaction between the two environments is believed to be the key to faster, safer, and more efficient body function. The Burdenko method works on the body as a whole, not just the injured part. The goal is to establish harmony of function in the body using a holistic approach. The water and land programs each consist of three stages: (1) warmup (walking, stretching, running), working out sports qualities (coordination, balance, flexibility, endurance, strength, and speed), and  cool-down (e.g., stretching, breathing and shaking)

HYDROTHERAPY: METHODS OF APPLICATION

Wound Healing and Hydrotherapy

There continues to be much controversy and research regarding the effectiveness

of whirlpool and Hubbard tank therapy in the management of wound healing.

The Agency for Health Care Policy and Research (AHCPR) Clinical Practice

Guidelines for the Treatment of Pressure Ulcers consider the use of whirlpool and

Hubbard tank treatments for the cleansing of pressure ulcers that contain thick

exudate, slough, or necrotic tissue. Whirlpool or Hubbard tank treatment should

be discontinued when the ulcer is determined to be clean.7 Caution must be taken

Aquatic and Hydrotherapy in Rehabilitation  so that wound trauma does not occur from the high pressure water jets in the whirlpool. The water turbulence can damage granulation tissue and migrating epidermal cells. As a result, the water jets should not be positioned close to the wound.

Treatment assessment is essential, and whirlpool use should be discontinued once

exudate, slough, and necrotic tissue are cleared to prevent further damage.

Whirlpool Baths

There are basically two types of whirlpool tanks: fixed and portable tanks.

"Lowboy" and "highboy" tanks are for extremity or trunk immersion. This treatment provides heat, gentle massage, debridement, and relief of joint pain and stiffness and promotes relaxation of muscles. The immersed body parts can perform active, active-assistive, or passive ROM exercises while the body parts are submerged.

Hubbard Tanks

Full-body immersion whirlpools are known as Hubbard tanks. An overhead lift

with a stretcher is usually used to get the patient into the water. Water temperature

should not exceed 1° above normal body temperature. Patients with burns requiring debridement of necrotic tissue, slough, or thick exudate may benefit from fullbody immersion treatments. Burn patients may also benefit from dressing removal in water and from active exercise assisted by the water.

Certain patients with open wounds may also be suitable candidates for Hubbard

tank therapy. A study of postabdominal surgical patients found a decreased gas

build-up after surgery in the intestines, facilitated wound healing, and decreased

anxiety with tank therapy. The advantages of the Hubbard tank are its ability to obtain full-body immersion, achieve wound debridement, facilitate active exercise, and decrease pain and anxiety in patients who have contraindications to participating in the therapeutic pool .

Duration

Physiologic effects are generally achieved in 20 minutes when used as a heating

modality. Borrell and colleagues demonstrated that 20 minutes was long enough to

increase skin, muscle, and joint capsule temperature in the hand and foot.

Entries

For whirlpools, a standard whirlpool chair that sits outside of the tub to allow

lower extremities to be immersed or a whirlpool bench that sits inside a tank to

fully immerse the lower half of the body is available.

For Hubbard tanks, stretchers with mechanical lifts are available.

Currently, there are no universal standards for cleaning and disinfecting

hydrotherapy tanks. The Centers for Disease Control and Prevention recommend

that sodium hypochlorite 70% per 100 gallons of water be added to the tank before

the patient enters to produce free chlorine residual of about 15 mg/L.  These

concentrations have been found to reduce the microbial contamination in water

from 104 to less than 10 colony-forming units per milliliter in a controlled study

with patients with burns.            

Pulsed Lavage

Pulsed lavage offers an alternative or adjunct to hydrotherapy for wound healing.

Pulsed lavage is described as a system delivering an irrigation solution under

pressure by an electrically powered device. This pressure cleanses the wound of

debris, increases tissue perfusion, and enhances a clean wound bed for granulation

to occur. Pulsed lavage delivers a pulsating stream of fluid that loosens necrotic

tissue from the wound and may concurrendy be used with suction to remove debris

and irrigating solutions. The AHCPR guideline suggest that irrigation pressures

less than 4 psi may be inefficient to remove surface pathogens and debris, and that

irrigation pressures greater than 15 psi may cause wound trauma and drive bacteria

into wounds. These pressure range recommendations were derived from studies

conducted by Brown et al., Rodeheaver et al., Wheeler et al., and Stewart et al.

and a series of studies performed at Walter Reed Army Hospital. Normal saline is

the preferred cleansing agent because it is physiologic, will not harm tissue, and

adequately cleanses most wounds.

Advantages

Pulsed lavage can be used for treatment of patients who need to remain in their

room secondary to isolation or medical compromise. Patients with tracheostomies

WHIRLPOOL AND HUBBARD TANK CONTRAINDICATIONS

Incontinence of bowel or bladder

Unstable blood pressure

Uncontrolled seizure disorders

Acute febrile illness

Infectious disease

WHIRLPOOL AND HUBBARD TANK PRECAUTIONS

Increased edema in extremities

Cardiac disease

Peripheral vascular disease

Decreased cognitive status

Decreased vital capacity (<1.0—1.5 L)

Controlled seizure disorders

Patients should never be left unattended during a whirlpool or Hubbard tank treatment. Aquatic and Hydrotherapy in Rehabilitation  or ventilators may receive pulsed lavage treatments for wound care with significantly decreased risk of water aspiration and increased safety regarding electrical equipment during treatment with water. Pulsed lavage treatments can continue after discharge in the home and may promote shorter hospital stays.

Contraindications and Precautions

Pulsed lavage is contraindicated near exposed blood vessels, eyes, or dura. The skill of the professional or caregiver performing the treatment is important to prevent spray from contaminating the surrounding treatment area, the patient, or the person administering the treatment. The irrigation fluid should be suctioned as fast as it is sprayed to decrease the risk of contamination. Two people may perform the technique, with one administering the fluid stream and the other suctioning the debris and remaining fluid. Caution must be taken when using pulsed lavage near exposed muscle.

Research comparing the effectiveness of pulsed lavage and whirlpool on wound

cleansing is scant. Additional clinical studies comparing die effects of the two on wound cleansing and healing are needed. Recognizing the progressive financial restrictions facing the clinician, future comparisons should also include cost analyses of the two methods. Total cost per incident, number of treatments required to achieve wound closure, and per-treatment costs should be included in future research.

Contrast Baths

Contrast baths are an alternating application of hot and cold generally applied to distal extremities, using a 3:1 ratio of hot to cold, applied with compresses or immersion. Contrast baths are used primarily for increasing blood flow through an area. Contrast baths promote a type of vascular exercise causing alternate constriction and dilation of the local blood vessels, which stimulates increased peripheral circulation. This process aids in removing wastes that accumulate in areas of inflammation and assists in bringing nutrients and oxygen to the area.

Indications Contrast hydrotherapy is an effective treatment for subacute, postacute, and chronic cases of tendinitis, bursitis, and arthritis. It is also effective for desensitization of neuropathic or sympathetic pain syndromes, such as reflex sympathetic dystrophy (RSD). Contrast baths can assist in the treatment of RSD by reducing edema and normalizing sympathetic neuroregulation of blood vessels.

Contraindications and Precautions for Contrast Baths

Advanced atherosclerosis and advanced peripheral vascular disease should be

treated with extreme caution to avoid the exacerbation of ischemia. In the presence

of open wounds, the containers should be sterilized before and after use. Pad

the edges of containers to avoid constriction of the circulatory or lymphatic system.

Watch skin coloration and monitor patient's pulse. Adhere to those precautions

and contraindications relating to other applications of heat and cold.

Contrast Bath Procedures

Begin with hot water immersion (Table 7) for 10 minutes then begin alternating

with:

For edema reduction, begin with cold water immersion for 1 minute, followed

by hot water immersion for 4 minutes, continuing for 3-5 repetitions, ending with

cold water immersion.

Sitz Baths

A sitz bath is a bath in which the pelvis is immersed in hot aor cold water. Traditionally, hot sitz baths have been used for relief of postpartum perineal pain, and one of the most routine orders for postpartum patients is the warm sitz bath. Studies have investigated the effectiveness of hot versus cold sitz baths, intermittently, to relieve postpartum perineal pain. Scientific observation would suggest a change to ice therapy to decrease edema and hemorrhage, thus decreasing the length and severity of postpartum pain.24 Alternative medicine treatments include hot, cold,  and contrasting (hot/cold) sitz baths to decrease pelvic discomfort. Further research appears warranted in this area. Warm sitz baths are effective in treating hemorrhoids and anorectal pain.12 Naturopathic hydrotherapy uses sitz baths for pelvic disorders, as well as indications for treating sciatica, insomnia, headache, congestion, constipation, and incontinence.11

SUMMARY

Humans have used hydrotherapy for healing and spiritual rituals for centuries.

The use of water's therapeutic properties gained popularity in the medical community in the 1800s, but its frequency of use by the medical establishment has

varied since then. The field of aquatic therapy has grown tremendously in the late

20th century, serving as an adjunct to land-based therapies. Water's physical properties, including buoyancy and increased resistance to movement compared to air, provide advantages that cannot be found in land-based programs.

Aquatic therapy techniques need continued development as health-care professionals acquire skill and comfort in performing them and continue to note the important role the therapeutic use of water can have in a patient's rehabilitation.

Research on pulsed lavage techniques and hydrotherapy immersion in the treatment of wound care remains scant. Further research is needed to support the

effectiveness of aquatic and hydrotherapy procedures and to promote evidencebased health-care practice within the financial constraints now faced in the 21st century.