Management of children with Orthopedic disorders :-
AS PER INDIAN NURSING COUNCIL SYLLABUS :-
Orthopedic disorders:
Club foot
Hip dislocation and
Fracture
π¦Ά Clubfoot (Talipes Equinovarus) β
Definition: Clubfoot is a congenital deformity where one or both feet are twisted inward and downward, resembling the shape of a golf club. It may affect the bones, muscles, tendons, and blood vessels of the lower leg and foot.
π Types of Clubfoot by Etiology:
Type
Description
Idiopathic
Most common; occurs in otherwise healthy infants without any associated condition.
Syndromic
Associated with genetic syndromes (e.g., arthrogryposis, trisomy 18).
Neurogenic
Due to neuromuscular conditions like cerebral palsy or spina bifida.
Positional
Due to abnormal fetal positioning in the womb; usually flexible and mild.
𧬠Etiological Factors:
1. Genetic Factors
Family history of clubfoot increases risk.
Possible polygenic inheritance.
Mutation in genes affecting musculoskeletal development.
Exposure to certain drugs or infections during fetal development.
3. Neuromuscular Disorders
Muscle imbalance or nerve abnormalities may lead to abnormal foot positioning.
Associated conditions:
Cerebral palsy
Spina bifida
Poliomyelitis
4. Syndromic Associations
Clubfoot may occur as a part of broader syndromes:
Arthrogryposis multiplex congenita
Larsen syndrome
Trisomy 18 (Edwardβs syndrome)
5. Positional (Postural) Causes
Due to abnormal positioning of the fetus in the uterus.
Foot is flexible; typically resolves with minimal or no intervention.
Factor Type
Examples
Genetic
Family history, genetic mutations
Environmental
Uterine compression, smoking, drugs, infections
Neurological
CP, spina bifida, polio
Syndromic
Trisomy 18, arthrogryposis, other genetic syndromes
Positional
Fetal malposition, limited uterine space
π¬ Pathophysiological Process :–
The exact cause of idiopathic clubfoot is not fully understood, but it is believed to be due to a combination of genetic, neurological, and environmental factors. These factors disrupt the normal development of the foot during fetal life, leading to structural abnormalities.
π Step-by-Step Pathophysiological Process:
Genetic or environmental insult in utero β¬
Abnormal development of bones, tendons, and muscles in the foot and ankle β¬
Soft tissue contractures on the medial and posterior sides of the foot β¬
Bony misalignment and fixed deformity:
Equinus β Plantar flexion at the ankle
Varus β Inward turning of the heel
Adduction β Forefoot curves inward
Cavus β High medial arch β¬
Foot appears twisted inward and downward, stiff and difficult to correct without treatment
𦴠Key Anatomical Abnormalities in Clubfoot:
Structure Affected
Pathological Changes
Talus (ankle bone)
Abnormally small, misshapen, and medially rotated
Calcaneus (heel bone)
Elevated and rotated medially (varus)
Navicular
Displaced medially
Muscles
Tibialis posterior, Achilles tendon, and other posterior muscles are tight and short
Tendons & Ligaments
Contracted on the medial and posterior aspects of the foot
Joint Capsules
Thickened and contracted
π£ Clinical Manifestations of Clubfoot (Talipes Equinovarus)
π General Features:
Feature
Description
Unilateral or Bilateral
Clubfoot can affect one (unilateral) or both (bilateral) feet.
Rigid or Flexible
Deformity may be stiff (rigid) or partially movable (flexible).
Painless at Birth
No pain is felt in neonates; symptoms are structural and visual.
𦡠Classic Clinical Signs (Mnemonic: CAVE):
Component
Manifestation
Cavus
High medial longitudinal arch of the foot.
Adduction
Forefoot is turned inward (towards the opposite foot).
Varus
Heel is turned inward (inversion of the hindfoot).
Equinus
Ankle is in plantar flexion (toes point downward like a ballerina).
β¨ Other Key Clinical Findings:
Clinical Sign
Description
Shortened Foot & Calf
Affected foot and lower leg appear smaller and thinner.
Limited Range of Motion
Difficulty in dorsiflexion (lifting the foot upward).
Deep Medial Crease
A visible crease on the inner side of the foot due to inward bending.
Posterior Heel Crease
Tight Achilles tendon leads to deep skin folds at the back of the ankle.
Muscle Atrophy
Calf muscles on the affected side may appear underdeveloped.
Abnormal Gait (if untreated)
In older children, walking on the outer edge or top of the foot.
Callosities
Development of thickened skin from abnormal weight-bearing.
πΆ In Newborns:
Foot is visibly twisted and doesn’t return to a normal position when manipulated.
Deformity is often detected at birth or through prenatal ultrasound in the second trimester.
No discomfort or signs of inflammation.
Parents may notice a short, curved, stiff foot.
β Diagnostic Tests for Clubfoot
Test Type
Purpose
Physical Examination
Primary method at birthβfoot appearance, range of motion, rigidity.
Prenatal Ultrasound
Detects clubfoot as early as the second trimester (18β20 weeks).
X-Ray (Foot/Ankle)
Rarely needed in newborns, but may be used to assess bone alignment.
MRI/CT Scan
Occasionally used in complex or relapsed cases to plan surgery.
Gentle manipulation and serial casting started shortly after birth.
Weekly cast changes to gradually correct the deformity.
Followed by percutaneous Achilles tenotomy (if needed).
Post-correction: Bracing using foot abduction brace (e.g., Dennis-Browne splint) to maintain results.
β±οΈ Duration: Brace worn 23 hours/day for 3 months, then during sleep until 4β5 years of age.
π¦Ά 2. French Functional Method (Physiotherapy Approach)
Daily stretching, taping, and physiotherapy.
Less popular than Ponseti, requires skilled therapists and daily visits.
π 3. Other Medical Support
Analgesics (e.g., paracetamol) for pain post-casting or tenotomy.
Parental education and support on brace compliance.
π οΈ Surgical Management
Indications:
Severe rigid deformity.
Failure of conservative methods (Ponseti).
Relapse after initial correction.
π₯ Surgical Procedures:
Procedure
Purpose
Percutaneous Achilles Tenotomy
Small cut to lengthen Achilles tendon; part of Ponseti method.
Posterior Medial Soft Tissue Release
Releases tight ligaments, tendons, and joint capsules.
Tendon Transfer Surgery
Repositioning tendons (e.g., tibialis anterior) to correct imbalance.
Osteotomy
Bone cutting and realignment (for older children or complex deformity).
Triple Arthrodesis
Fusion of three foot joints in older children/adolescents.
π Post-Operative Care
Immobilization in a cast.
Pain management.
Physiotherapy to regain range of motion and muscle strength.
Long-term use of orthotic devices or braces to prevent relapse.
π― Goals of Management:
Achieve a plantigrade foot (sole flat on ground).
Enable painless, functional walking.
Prevent relapse or progression of deformity.
Of course! Here’s a detailed, well-organized presentation of Nursing Management for Clubfoot (Talipes Equinovarus), suitable for clinical and academic use:
Monitor surgical site for bleeding, infection, or swelling.
Maintain sterile dressing and report any abnormal drainage.
Administer prescribed analgesics for pain relief.
Encourage passive range-of-motion exercises once allowed.
π£ C. Brace/Orthotic Management
Instruct parents on wearing schedule, cleaning of brace, and skin care.
Educate about importance of compliance to prevent relapse.
Check for skin redness, pressure sores due to brace straps.
π§ D. Parental Education & Emotional Support
Explain the condition, treatment plan, and expected outcomes in simple language.
Demonstrate care techniques (e.g., brace application, cast care).
Encourage parental involvement in care and handling of the child.
Provide emotional reassurance and connect with support groups if needed.
π§ E. Growth & Developmental Support
Encourage age-appropriate activities to promote normal development.
Collaborate with physiotherapists for motor skills improvement.
Regularly assess developmental milestones and report delays.
π§Ύ 4. Evaluation
Expected Outcome
Criteria
Foot is gradually corrected to near-normal position
Improved alignment post casting or surgery
No signs of impaired circulation or skin breakdown
Warm toes, pink skin, no sores or redness
Parents demonstrate understanding of home care and follow-up
Verbal explanation, correct demonstration of brace care
Child achieves developmental milestones within normal range
Sitting, standing, walking appropriate for age
π― Nursing Tips for Clinical Success
Use the “5 Ps” when monitoring cast: Pain, Pallor, Pulse, Paresthesia, Paralysis
Reinforce early detection and treatment importance to parents.
Keep education pamphlets or visual aids ready during discharge teaching.
Document cast checks and skin condition at every shift.
𦴠HIP DISLOCATION
π Definition:
Hip dislocation is a condition in which the head of the femur (thigh bone) is forcibly displaced out of the acetabulum (hip socket) of the pelvis. It is a medical emergency that can lead to complications such as nerve injury, avascular necrosis, or joint instability if not treated promptly.
πΉ Types of Hip Dislocation:
Posterior Dislocation (90%) β The femoral head is displaced backward, usually due to trauma.
Anterior Dislocation (10%) β The femoral head is displaced forward, less common.
π Etiology (Causes of Hip Dislocation)
Hip dislocation can occur due to traumatic, congenital, or pathological causes.
π§ 1. Traumatic Causes (Most Common in Adults)
Cause
Description
High-impact injuries
Road traffic accidents (dashboard injury), especially when knees hit dashboard causing femur to push back.
Falls from height
Especially in older adults or athletes.
Sports injuries
Contact sports like football or rugby may cause forceful hip dislocation.
Industrial accidents
Heavy impact or crush injuries.
πΆ 2. Congenital Causes (Developmental Dysplasia of the Hip β DDH)
Cause
Description
Developmental abnormalities
Abnormal formation of hip joint during fetal development.
Breech position at birth
Increases the risk of DDH and dislocation.
Family history of DDH
Genetic predisposition.
Swaddling practices
Tight wrapping of legs in extension and adduction.
𧬠3. Pathological Causes
Cause
Description
Neuromuscular disorders
Conditions like cerebral palsy, spina bifida may cause muscle imbalance.
Arthritis
Rheumatoid arthritis or septic arthritis weakens the joint.
Previous hip surgery
Hip replacement patients are at risk for dislocation postoperatively.
Hip joint tumors or bone diseases
May weaken the joint structure, making it prone to dislocation.
π§Ύ Summary Table: Etiology of Hip Dislocation
Etiology Type
Examples
Traumatic
Road traffic accident, fall, sports injury
Congenital
Developmental dysplasia of the hip (DDH), breech birth, family history
Pathological
Cerebral palsy, arthritis, postoperative complications, bone tumors
π¬ Pathophysiology of Hip Dislocation
Hip dislocation occurs when the femoral head (ball) is displaced from the acetabulum (socket) of the pelvis, either due to trauma, developmental issues, or pathological conditions.
π Step-by-Step Pathophysiological Mechanism:
A. Traumatic Hip Dislocation (Most Common in Adults)
Forceful impact (e.g., road accident) applies sudden pressure to the hip joint.
The femoral head is pushed out of the acetabulum, usually:
Posteriorly (in 90% of cases)
Anteriorly (in 10% of cases)
Surrounding ligaments, capsule, and labrum are torn or stretched.
Compression/stretching of nearby nerves (especially sciatic nerve in posterior dislocation).
Disrupted blood supply to the femoral head, risking avascular necrosis (bone death).
B. Congenital Hip Dislocation / Developmental Dysplasia of the Hip (DDH)
During fetal development, the acetabulum is shallow, and the femoral head doesn’t fit properly.
This poor alignment allows the hip to easily slip out or dislocate.
Over time, joint development remains abnormal, leading to deformity, limited motion, and unequal limb length.
Posterior dislocation: leg is flexed, adducted, internally rotated. Anterior dislocation: leg is abducted, externally rotated.
Swelling and deformity
Visible change in shape around the hip.
Numbness or tingling
Due to sciatic nerve compression (posterior dislocation).
πΉ B. In Congenital/Developmental Dislocation (Gradual Onset in Infants)
Clinical Feature
Description
Asymmetrical thigh/gluteal folds
Uneven skin folds in buttocks or thighs.
Limited abduction of hip
One hip may not spread fully when hips are moved apart.
Positive Ortolani/Barlow tests
Audible “click” when hip is moved by examiner.
Shortening of affected limb
One leg appears shorter.
Waddling gait (in older child)
Due to poor hip stability.
Delayed walking
May be the first sign if not diagnosed early.
π Important:
Hip dislocation, especially traumatic, is an orthopedic emergency requiring immediate reduction to prevent complications like avascular necrosis and nerve damage.
π§ͺ β 1. Diagnostic Tests for Hip Dislocation
Test Name
Purpose / What It Shows
Physical Examination
Assesses deformity, leg positioning, range of motion, and neurovascular status.
X-Ray (Pelvis/Hip)
Confirms dislocation type (anterior or posterior), shows fractures if present.
CT Scan
Detects associated fractures, joint damage, or failed reduction.
MRI
Assesses soft tissue injury and avascular necrosis risk.
Ultrasound (in infants)
Preferred for diagnosing Developmental Dysplasia of the Hip (DDH).
Ortolani and Barlow Tests
Performed in infants to detect congenital hip instability/dislocation.
Hip dislocation, whether traumatic or congenital (DDH), requires comprehensive nursing care to promote recovery, prevent complications, and support both the patient and family.
Use pediatric pain scales; note worsening with movement.
Mobility
Observe gait, use of assistive devices, ability to bear weight.
Hip ROM
Assess limitation in abduction and internal rotation.
Psychosocial
Childβs reaction to mobility restriction; school and peer impact.
Parental Knowledge
Assess understanding of condition, treatment plan, and home care.
π 2. Nursing Diagnoses (Examples):
Diagnosis
Related To
Evidenced By
Impaired physical mobility
Joint stiffness, pain, bracing
Refusal to walk, altered gait
Chronic pain
Avascular necrosis of femoral head
Verbalization, guarding, irritability
Risk for delayed growth and development
Immobility
Poor weight-bearing milestones
Knowledge deficit (parent/family)
New diagnosis, treatment regimen
Frequent questions, improper brace use
Risk for impaired skin integrity
Long-term use of braces or casts
Redness or sores under device
π‘οΈ 3. Nursing Interventions
πΉ A. Pain and Comfort
Administer NSAIDs as prescribed.
Apply heat packs (if approved) to ease stiffness.
Encourage gentle ROM exercises under physiotherapist guidance.
πΉ B. Mobility and Positioning
Teach safe use of mobility aids (walker, crutches).
Ensure correct brace fitting and skin checks.
Position limb in abduction if recommended.
πΉ C. Developmental and Emotional Support
Encourage participation in non-strenuous play.
Maintain peer contact and schoolwork (online classes, home tutoring).
Offer age-appropriate explanations about the condition.
πΉ D. Skin Integrity
Inspect skin under brace/cast daily for redness, rash, or breakdown.
Keep skin clean and dry, especially in warm weather.
πΉ E. Family Education
Explain phases of disease and importance of treatment compliance.
Demonstrate brace care, exercises, and movement precautions.
Instruct on signs to report: worsening pain, limb length discrepancy, swelling.
π 4. Evaluation
Goal
Expected Outcome
Pain is relieved
Child reports pain < 3/10, moves with less discomfort
Joint function is preserved
Maintains or improves ROM
Skin remains intact
No pressure sores or rashes under brace/cast
Parents demonstrate understanding
Accurately apply brace and follow restrictions
Child maintains developmental progress
Engages in school/play activities within safe limit
𦴠Slipped Capital Femoral Epiphysis (SCFE)
(Also called Slipped Upper Femoral Epiphysis β SUFE)
π Definition:
Slipped Capital Femoral Epiphysis (SCFE) is a hip disorder seen in adolescents where the head (epiphysis) of the femur slips off the neck at the growth plate (physis) in a posterior and inferior direction.
π§ Common in children aged 10β16 years, especially overweight boys, during rapid growth periods.
π Etiology (Causes & Risk Factors):
SCFE occurs due to weakening of the growth plate (physis) during adolescence.
Engages in play, school activities, and socialization
π Rickets in Children
π Definition:
Rickets is a pediatric metabolic bone disorder characterized by impaired mineralization of growing bones due to deficiency or abnormal metabolism of vitamin D, calcium, or phosphate.
π§ Common in infants and young children, especially between 6 months to 3 years during periods of rapid bone growth.
π Etiology (Causes):
A. Nutritional Causes (Most common)
Cause
Description
Vitamin D deficiency
Inadequate sun exposure, poor dietary intake
Calcium deficiency
Low intake or malabsorption
Phosphorus deficiency
Less common but can impair bone mineralization
B. Non-Nutritional Causes
Type
Examples
Hereditary (genetic)
Vitamin Dβdependent rickets types I & II
Renal causes
Chronic kidney disease, renal tubular acidosis
Malabsorption syndromes
Celiac disease, inflammatory bowel disease
Liver disorders
Interfere with vitamin D activation
Anticonvulsant therapy
Reduces vitamin D levels
π¬ Pathophysiology (Step-by-Step)
Vitamin D deficiency or resistance impairs calcium and phosphate absorption from the intestine.
Blountβs Disease is a developmental disorder that affects the medial (inner) part of the proximal tibial growth plate, leading to progressive bowing of the leg (genu varum).
It results from abnormal endochondral ossification and growth suppression of the medial tibial physis, causing the leg to bow outward.
π Etiology (Causes & Risk Factors):
πΉ Primary/Contributing Factors:
Factor
Description
Obesity
Increased mechanical stress on tibial physis
Early walking
Walking before 12 months in heavy infants may contribute
Genetics
Familial tendency observed in some cases
Race/Ethnicity
More common in African-American and Hispanic populations
Mechanical overload
Uneven pressure on the growth plate (especially medial side)
Vitamin D deficiency
May coexist or worsen growth abnormalities
π¬ Pathophysiology (Step-by-Step):
The medial portion of the proximal tibial growth plate fails to grow normally.
Growth continues normally on the lateral side, but slows or stops on the medial side.
This asymmetric growth causes the tibia to curve inward (varus deformity).
Progressive worsening of bowing occurs with weight-bearing and growth.
Long-term, this may result in joint deformity, limb shortening, and early osteoarthritis.
Childβs self-esteem, body image, social participation
Nutritional status
Diet history (calcium, vitamin D), signs of obesity or malnutrition
π 2. Nursing Diagnoses:
Nursing Diagnosis
Related To
Evidenced By
Impaired physical mobility
Pain, deformity, surgical restrictions
Limp, brace use, altered gait
Risk for delayed growth and development
Bone deformity, immobility
Below expected height, delayed milestones
Disturbed body image
Visible leg deformity
Verbal dissatisfaction, withdrawal from play
Risk for skin breakdown
Bracing or post-operative immobility
Redness or sores under brace
Knowledge deficit (parent/child)
New diagnosis, unfamiliar treatment
Questions, anxiety, poor compliance
π‘οΈ 3. Nursing Interventions:
πΉ A. Prevention and Health Promotion
Educate parents on importance of regular check-ups if child shows bowed legs beyond age 2.
Encourage healthy weight and nutrient-rich diet (especially calcium and vitamin D).
Promote age-appropriate physical activity.
πΉ B. Non-Surgical Care
Teach parents proper brace application and care.
Inspect skin daily under braces for redness or breakdown.
Encourage frequent repositioning and movement.
πΉ C. Post-Surgical Care
Monitor vital signs, pain, neurovascular status of affected limb.
Ensure wound care and dressing changes as ordered.
Encourage deep breathing, coughing, and leg exercises.
Assist with ambulation and use of assistive devices.
Administer analgesics and antibiotics as prescribed.
πΉ D. Rehabilitation and Education
Refer for physiotherapy to maintain mobility and joint function.
Explain signs of complications: infection, bleeding, cast problems.
Teach importance of follow-up visits and serial X-rays.
Support child and parents emotionally and offer peer support groups if needed.
π 4. Evaluation:
Goal
Expected Outcome
Deformity is corrected or controlled
Improved leg alignment on clinical and radiographic evaluation
Child maintains/improves mobility
Walks with/without assistance
Parents demonstrate effective home care
Brace use, wound care, medication compliance
Child maintains developmental progress
Participates in school, play, and peer interactions
No complications arise
No signs of infection, neurovascular issues, or breakdown
𦡠Osgood-Schlatter Disease (OSD)
(Tibial Tuberosity Apophysitis)
π Definition:
Osgood-Schlatter Disease (OSD) is a self-limiting, overuse injury of the tibial tuberosity (the bony prominence just below the kneecap), commonly seen in active children and adolescents during growth spurts.
It is an inflammation of the patellar tendon at its insertion into the immature tibial tubercle.
π Etiology (Causes & Risk Factors):
π’ Primary Cause:
Repetitive stress or traction on the tibial tuberosity by the quadriceps muscle via the patellar tendon during activities like running, jumping, or squatting.
β οΈ Risk Factors:
Risk Factor
Description
Age & Growth Spurts
Common between 10β15 years during rapid bone growth
Gender
More common in boys, but increasing in active girls