During the first 10 minutes after birth, it is normal for a healthy newborn to have SpO2 readings that are not optimal. It is also common for them to experience temporary cyanosis, which typically resolves on its own and does not require intervention. It is important to evaluate the baby’s appearance and color using the APGAR scoring system at 1 minute after birth, and then again at 5 and 10 minutes.

Cyanosis, a bluish discoloration of the skin, is a common occurrence in newborns. Peripheral cyanosis, which affects the hands and feet, is often seen in the first 24 hours of life and can be caused by crying or illness. Central cyanosis, on the other hand, is a more serious condition that occurs when the concentration of reduced hemoglobin in the blood exceeds 5g/dl. To differentiate between cardiac and non-cardiac causes of central cyanosis, doctors may use the nitrogen washout test, which involves giving the infant 100% oxygen for ten minutes and then measuring arterial blood gases. A pO2 of less than 15 kPa indicates cyanotic congenital heart disease, which can be caused by conditions such as tetralogy of Fallot, transposition of the great arteries, and tricuspid atresia.

If cyanotic congenital heart disease is suspected, initial management involves supportive care and the use of prostaglandin E1, such as alprostadil, to maintain a patent ductus arteriosus in ductal-dependent congenital heart defects. This can serve as a temporary measure until a definitive diagnosis is made and surgical correction is performed.

Acrocyanosis, a type of peripheral cyanosis, is a benign condition that is often seen in healthy newborns. It is characterized by bluish discoloration around the mouth and extremities, such as the hands and feet, and is caused by vasomotor changes that result in peripheral vasoconstriction and increased tissue oxygen extraction. Unlike other causes of peripheral cyanosis that may indicate significant pathology, such as septic shock, acrocyanosis occurs immediately after birth in healthy infants and typically resolves within 24 to 48 hours.

Perthes’ disease is a condition that affects the hip joints of children, typically between the ages of 4 and 8. It is more common in boys and presents with symptoms such as hip pain, limping, and reduced range of motion. However, if Perthes’ disease occurs in children under the age of 6, it has a good prognosis and can be managed with observation and follow-up. Therefore, this is the preferred management choice. Open reduction and internal fixation, splinting, and the use of a Pavlik harness are not appropriate treatments for Perthes’ disease in children under 6 years old.

Understanding Perthes’ Disease

Perthes’ disease is a degenerative condition that affects the hip joints of children, typically between the ages of 4-8 years. It is caused by a lack of blood supply to the femoral head, which leads to bone infarction and avascular necrosis. This condition is more common in boys, with around 10% of cases being bilateral. The symptoms of Perthes’ disease include hip pain, stiffness, reduced range of hip movement, and a limp. Early changes can be seen on an x-ray, such as widening of the joint space, while later changes include decreased femoral head size and flattening.

To diagnose Perthes’ disease, a plain x-ray is usually sufficient. However, if symptoms persist and the x-ray is normal, a technetium bone scan or magnetic resonance imaging may be necessary. If left untreated, Perthes’ disease can lead to complications such as osteoarthritis and premature fusion of the growth plates.

The severity of Perthes’ disease is classified using the Catterall staging system, which ranges from stage 1 (clinical and histological features only) to stage 4 (loss of acetabular integrity). Treatment options include keeping the femoral head within the acetabulum using a cast or braces, observation for children under 6 years old, and surgical management for older children with severe deformities. The prognosis for Perthes’ disease is generally good, with most cases resolving with conservative management. Early diagnosis is key to improving outcomes.

Vitamin K is crucial in preventing haemorrhagic disease in newborns and can be administered orally or intramuscularly. While both methods are licensed for neonates, it is advisable to recommend the IM route to parents due to concerns about compliance and the shorter duration of treatment (one-off injection). The oral form is not recommended for healthy neonates as there is a risk of inadequate dosage due to forgetfulness or the baby vomiting up the medication.

Haemorrhagic Disease of the Newborn: Causes and Prevention

Newborn babies have a relatively low level of vitamin K, which can lead to the development of haemorrhagic disease of the newborn (HDN). This condition occurs when the production of clotting factors is impaired, resulting in bleeding that can range from minor bruising to intracranial haemorrhages. breastfed babies are particularly at risk, as breast milk is a poor source of vitamin K. Additionally, the use of antiepileptic medication by the mother can increase the risk of HDN in the newborn.

To prevent HDN, all newborns in the UK are offered vitamin K supplementation. This can be administered either intramuscularly or orally. By providing newborns with adequate levels of vitamin K, the risk of HDN can be significantly reduced. It is important for parents and healthcare providers to be aware of the risk factors for HDN and to take steps to prevent this potentially serious condition.

The oxygen level is below 15 kPa, indicating a cyanotic heart defect. The most likely defect to present soon after birth is transposition of the great arteries, which is consistent with the examination findings. Pulmonary valve stenosis may also cause cyanosis if the lesion is large enough and is associated with Noonan syndrome. It produces a mid-systolic crescendo-decrescendo murmur. Tetralogy of Fallot is the most common cyanotic heart defect but typically presents between 1 and 6 months of age. It is characterized by a loud ejection systolic murmur that is most prominent at the left upper sternal edge and radiates to the axillae.

Understanding Transposition of the Great Arteries

Transposition of the great arteries (TGA) is a type of congenital heart disease that results in a lack of oxygenated blood flow to the body. This condition occurs when the aorticopulmonary septum fails to spiral during septation, causing the aorta to leave the right ventricle and the pulmonary trunk to leave the left ventricle. Children born to diabetic mothers are at a higher risk of developing TGA.

The clinical features of TGA include cyanosis, tachypnea, a loud single S2 heart sound, and a prominent right ventricular impulse. Chest x-rays may show an egg-on-side appearance.

To manage TGA, it is important to maintain the ductus arteriosus with prostaglandins. Surgical correction is the definitive treatment for this condition. Understanding the basic anatomical changes and clinical features of TGA can help with early diagnosis and appropriate management.

The leading cause of early-onset neonatal sepsis in the UK is infection by group B streptococcus.

Neonatal Sepsis: Causes, Risk Factors, and Management

Neonatal sepsis is a serious bacterial or viral infection in the blood that affects babies within the first 28 days of life. It is categorized into early-onset (EOS) and late-onset (LOS) sepsis, with each category having distinct causes and common presentations. The most common causes of neonatal sepsis are group B streptococcus (GBS) and Escherichia coli, accounting for approximately two-thirds of cases. Premature and low birth weight babies are at higher risk, as well as those born to mothers with GBS colonization or infection during pregnancy. Symptoms can vary from subtle signs of illness to clear septic shock, and diagnosis is usually established through blood culture. Treatment involves early identification and use of intravenous antibiotics, with duration depending on ongoing investigations and clinical picture. Other important management factors include maintaining adequate oxygenation and fluid and electrolyte status.

Neonatal Sepsis: Causes, Risk Factors, and Management

Neonatal sepsis is a serious infection that affects newborn babies within the first 28 days of life. It can be caused by a variety of bacteria and viruses, with GBS and E. coli being the most common. Premature and low birth weight babies, as well as those born to mothers with GBS colonization or infection during pregnancy, are at higher risk. Symptoms can range from subtle signs of illness to clear septic shock, and diagnosis is usually established through blood culture. Treatment involves early identification and use of intravenous antibiotics, with duration depending on ongoing investigations and clinical picture. Other important management factors include maintaining adequate oxygenation and fluid and electrolyte status.

There are several conditions that can affect the development of male reproductive organs. 5α-reductase deficiency is a congenital absence of 5α-reductase, which is necessary for the production of dihydrotestosterone. Without dihydrotestosterone, the external genitalia may not develop properly, resulting in feminization. Testicular dysgenesis can also lead to poor development of the testes and decreased secretion of testosterone, which can cause feminization of the external genitalia and female-type internal tracts. 17α-hydroxylase deficiency prevents the synthesis of testosterone, leading to feminization of the external genitalia and degeneration of the Wolffian ducts. Complete androgen resistance results in feminization of the external genitalia, but neither male nor female internal tracts develop. Sertoli-only syndrome occurs when only Sertoli cells are present, leading to absent spermatogenesis and increased FSH levels. This can result in both male and female internal tracts due to the absence of the Müllerian regression factor, but normal testosterone secretion allows for the development of male-type external genitalia.

Due to the baby’s age of less than 24 hours, there is a high risk of severe hyperbilirubinaemia. It is crucial to urgently measure their serum bilirubin levels within 2 hours, as using a transcutaneous bilirubinometer is not suitable at this stage. While phototherapy can be used to treat jaundice, it is important to first measure the serum bilirubin levels to determine if exchange transfusion is necessary. This information is based on the NICE Guideline CG98 for Jaundice in newborn babies under 28 days.

Jaundice in newborns can occur within the first 24 hours of life and is always considered pathological. The causes of jaundice during this period include rhesus and ABO haemolytic diseases, hereditary spherocytosis, and glucose-6-phosphodehydrogenase deficiency. On the other hand, jaundice in neonates from 2-14 days is common and usually physiological, affecting up to 40% of babies. This type of jaundice is due to a combination of factors such as more red blood cells, fragile red blood cells, and less developed liver function. Breastfed babies are more likely to develop this type of jaundice.

If jaundice persists after 14 days (21 days for premature babies), a prolonged jaundice screen is performed. This includes tests for conjugated and unconjugated bilirubin, direct antiglobulin test, thyroid function tests, full blood count and blood film, urine for MC&S and reducing sugars, and urea and electrolytes. Prolonged jaundice can be caused by biliary atresia, hypothyroidism, galactosaemia, urinary tract infection, breast milk jaundice, prematurity, and congenital infections such as CMV and toxoplasmosis. Breast milk jaundice is more common in breastfed babies and is thought to be due to high concentrations of beta-glucuronidase, which increases the intestinal absorption of unconjugated bilirubin. Prematurity also increases the risk of kernicterus.

To detect the development of coronary artery aneurysms, it is crucial to conduct an echocardiogram when dealing with Kawasaki disease. This is because such an examination can identify any coronary artery dilation or aneurysm formation, which is the primary cause of death associated with this condition. While an ECG is also necessary to evaluate any conduction abnormalities that may arise due to carditis, it is not as fatal as coronary artery complications. On the other hand, a chest x-ray or lumbar puncture is unnecessary since Kawasaki disease typically does not affect the lungs or central nervous system. Similarly, an abdominal ultrasound scan is not required unless liver function tests suggest gallbladder distension.

Understanding Kawasaki Disease

Kawasaki disease is a rare type of vasculitis that primarily affects children. It is important to identify this disease early on as it can lead to serious complications, such as coronary artery aneurysms. The disease is characterized by a high-grade fever that lasts for more than five days and is resistant to antipyretics. Other symptoms include conjunctival injection, bright red, cracked lips, strawberry tongue, cervical lymphadenopathy, and red palms and soles that later peel.

Diagnosis of Kawasaki disease is based on clinical presentation as there is no specific diagnostic test available. Management of the disease involves high-dose aspirin, which is one of the few indications for aspirin use in children. Intravenous immunoglobulin is also used as a treatment option. Echocardiogram is the initial screening test for coronary artery aneurysms, rather than angiography.

Complications of Kawasaki disease can be serious, with coronary artery aneurysm being the most common. It is important to recognize the symptoms of Kawasaki disease early on and seek medical attention promptly to prevent potential complications.

Overview of Common Brain Tumors in Children and Adults

Brain tumors can occur in both children and adults, and they can be benign or malignant. Here are some of the most common types of brain tumors:

Cerebellar Astrocytoma: This is a type of glioma that originates from astrocytes, a type of glial cell. It is most commonly found in children and can be benign or malignant. Symptoms include headache, vomiting, and gait disturbances. Diagnosis is made through imaging tests such as CT or MRI scans, and treatment may include radiotherapy, chemotherapy, and surgery.

Glioblastoma Multiforme: This is the most common intracranial tumor in adults and is an aggressive astrocytoma with a poor prognosis. It is resistant to therapy, making treatment difficult.

Ependymoma: This is a glial tumor that arises within the ventricular system or spinal cord. It is the second most common type of pediatric intracranial tumor and is most commonly found in the posterior intracranial fossa. Symptoms depend on the location of the tumor and may include headache, lethargy, nausea, vomiting, nerve palsies, and cerebellar symptoms. Treatment may include surgery and radiotherapy.

Neuroblastoma: This is the most common extracranial tumor in children and is most commonly found in the adrenal glands. Symptoms may include abdominal pain, vomiting, and fatigue. Treatment may include surgery.

Oligodendroglioma: This type of tumor arises in the cerebral white matter and is most commonly found in middle-aged patients. It is rare in children, accounting for only 6% of intracranial pediatric tumors.

In conclusion, brain tumors can present with a variety of symptoms and require prompt diagnosis and treatment.

Jessica is deemed to have Gillick competence by the medical team, as she is a bright young woman who has thoroughly discussed the situation and appears to comprehend it. Therefore, she can provide consent for the procedure, even if her parents disagree. As she is stable, written consent should be obtained instead of verbal consent, which could be used in an emergency. It is not advisable to try and persuade her parents of the advantages of surgery, as this could delay her treatment. If Jessica has given her own valid consent, there is no need to wait for her parents’ decision. According to GMC’s 0-18 years guidance, parents cannot override the competent consent of a young person for treatment that is deemed to be in their best interests. However, parental consent can be relied upon when a child lacks the capacity to provide consent.

Guidelines for Obtaining Consent in Children

The General Medical Council has provided guidelines for obtaining consent in children. According to these guidelines, young people who are 16 years or older can be treated as adults and are presumed to have the capacity to make decisions. However, for children under the age of 16, their ability to understand what is involved determines whether they have the capacity to decide. If a competent child refuses treatment, a person with parental responsibility or the court may authorize investigation or treatment that is in the child’s best interests.

When it comes to providing contraceptives to patients under 16 years of age, the Fraser Guidelines must be followed. These guidelines state that the young person must understand the professional’s advice, cannot be persuaded to inform their parents, is likely to begin or continue having sexual intercourse with or without contraceptive treatment, and will suffer physical or mental health consequences without contraceptive treatment. Additionally, the young person’s best interests require them to receive contraceptive advice or treatment with or without parental consent.

Some doctors use the term Fraser competency when referring to contraception and Gillick competency when referring to general issues of consent in children. However, rumors that Victoria Gillick removed her permission to use her name or applied copyright have been debunked. It is important to note that in Scotland, those with parental responsibility cannot authorize procedures that a competent child has refused.

Assessing Acute Asthma Attacks in Children

When assessing the severity of asthma attacks in children, the 2016 BTS/SIGN guidelines recommend using specific criteria. These criteria can help determine whether the attack is severe or life-threatening. For a severe attack, the child may have a SpO2 level below 92%, a PEF level between 33-50% of their best or predicted, and may be too breathless to talk or feed. Additionally, their heart rate may be over 125 (for children over 5 years old) or over 140 (for children between 1-5 years old), and their respiratory rate may be over 30 breaths per minute (for children over 5 years old) or over 40 (for children between 1-5 years old). They may also be using accessory neck muscles to breathe.

For a life-threatening attack, the child may have a SpO2 level below 92%, a PEF level below 33% of their best or predicted, and may have a silent chest, poor respiratory effort, agitation, altered consciousness, or cyanosis. It is important for healthcare professionals to be aware of these criteria and to take appropriate action to manage the child’s asthma attack. By following these guidelines, healthcare professionals can help ensure that children with asthma receive the appropriate care and treatment they need during an acute attack.

Differential Diagnosis for a Patient with Knee Pain and Inflammation

Upon examination of a patient with knee pain and inflammation, several differential diagnoses should be considered. Septic arthritis is a likely possibility, especially if the patient has a recent cut or injury that could have allowed infective organisms to enter the joint. Non-accidental injury (NAI) should also be considered, although in this case, it is unlikely given the patient’s age, single injury, and relevant history. Slipped upper femoral epiphysis (SUFE), Osgood–Schlatter’s disease, and patellofemoral pain syndrome are less likely possibilities, as they typically present with different symptoms than what is observed in this patient. Overall, a thorough examination and consideration of all possible diagnoses is necessary to accurately diagnose and treat knee pain and inflammation.

A venous hum is a harmless murmur commonly found in children. It is characterized by a constant blowing sound that can be heard beneath the collarbones. In contrast, a Still’s murmur is also benign but produces a low-pitched noise on the lower left side of the sternum. A pulmonary flow murmur is another harmless murmur, but it is heard on the upper left side of the sternum. The remaining murmurs are considered pathological.

Innocent murmurs are common in children and are usually harmless. There are different types of innocent murmurs, including ejection murmurs, venous hums, and Still’s murmur. Ejection murmurs are caused by turbulent blood flow at the outflow tract of the heart, while venous hums are due to turbulent blood flow in the great veins returning to the heart. Still’s murmur is a low-pitched sound heard at the lower left sternal edge.

An innocent ejection murmur is characterized by a soft-blowing murmur in the pulmonary area or a short buzzing murmur in the aortic area. It may vary with posture and is localized without radiation. There is no diastolic component, no thrill, and no added sounds such as clicks. The child is usually asymptomatic, and there are no other abnormalities.

Overall, innocent murmurs are not a cause for concern and do not require treatment. However, if a child has symptoms such as chest pain, shortness of breath, or fainting, further evaluation may be necessary to rule out any underlying heart conditions.

Total Anomalous Pulmonary Venous Connection

Total anomalous pulmonary venous connection (TAPVC) is a condition that causes cyanosis in newborns. It is characterized by an abnormality in blood flow where all four pulmonary veins drain into systemic veins or the right atrium, with or without pulmonary venous obstruction. This results in the mixing of systemic and pulmonary venous blood in the right atrium.

In contrast, conditions such as patent ductus arteriosus (PDA), atrial septal defect (ASD), and ventricular septal defect (VSD) are left to right shunts. Tricuspid atresia is another condition that is typically associated with cyanosis, but mitral regurgitation is not.

It is important to understand the differences between these conditions and their effects on blood flow in order to properly diagnose and treat them. Further reading on TAPVC can be found on Medscape.

If a male child’s testes have not descended by 3 months of age, it is important to refer them for further evaluation. In the case of a 2-month-old child with a unilateral undescended testicle, the appropriate course of action is to review the situation again in 1 month. It is crucial to monitor the child’s condition as undescended testes can increase the risk of testicular cancer and infertility. While there is a chance that the testicle may descend on its own, it is important to ensure that it does so. Reassurance without follow-up would not be appropriate in this case. If the child were over 3 months of age, a routine referral would be necessary, but in this scenario, the child is only 2 months old. An urgent referral is not necessary at this stage. Waiting until the child is 1 year old to review the case would be inappropriate. If the testicle remains undescended by 3 months of age, the child should be referred to paediatric surgery for orchidopexy by 18 months of age.

Undescended Testis: Causes, Complications, and Management

Undescended testis is a condition that affects around 2-3% of male infants born at term, but it is more common in preterm babies. Bilateral undescended testes occur in about 25% of cases. This condition can lead to complications such as infertility, torsion, testicular cancer, and psychological issues.

To manage unilateral undescended testis, NICE CKS recommends considering referral from around 3 months of age, with the baby ideally seeing a urological surgeon before 6 months of age. Orchidopexy, a surgical procedure, is typically performed at around 1 year of age, although surgical practices may vary.

For bilateral undescended testes, it is crucial to have the child reviewed by a senior paediatrician within 24 hours as they may require urgent endocrine or genetic investigation. Proper management of undescended testis is essential to prevent complications and ensure the child’s overall health and well-being.

Elevated conjugated bilirubin is a characteristic feature of biliary atresia. This condition is often associated with prolonged jaundice, hepatomegaly, splenomegaly, abnormal growth, and cardiac murmurs in the presence of cardiac abnormalities. While liver transaminases and bile acids may also be elevated in biliary atresia, they are not specific to this condition and cannot distinguish it from other causes of neonatal cholestasis. Poor feeding and drinking are not helpful in making a diagnosis, as they can occur in many different conditions. While the age of presentation may suggest biliary atresia, there are several other potential causes of neonatal jaundice in a 15-day old infant, including congenital infections, urinary tract infections, breast milk jaundice, and hypothyroidism. Elevated unconjugated bilirubin is not a typical finding in biliary atresia, but may be seen in cases of hypothyroidism.

Understanding Biliary Atresia in Neonatal Children

Biliary atresia is a condition that affects the extrahepatic biliary system in neonatal children, resulting in an obstruction in the flow of bile. This condition is more common in females than males and occurs in 1 in every 10,000-15,000 live births. There are three types of biliary atresia, with type 3 being the most common. Patients typically present with jaundice, dark urine, pale stools, and abnormal growth.

To diagnose biliary atresia, doctors may perform various tests, including serum bilirubin, liver function tests, serum alpha 1-antitrypsin, sweat chloride test, and ultrasound of the biliary tree and liver. Surgical intervention is the only definitive treatment for biliary atresia, and medical intervention includes antibiotic coverage and bile acid enhancers following surgery.

Complications of biliary atresia include unsuccessful anastomosis formation, progressive liver disease, cirrhosis, and eventual hepatocellular carcinoma. However, the prognosis is good if surgery is successful. In cases where surgery fails, liver transplantation may be required in the first two years of life. Overall, understanding biliary atresia is crucial for early diagnosis and effective management in neonatal children.

Uncommon Clinical Features of Cardiac Failure in Infancy

Ascites, or the accumulation of fluid in the abdomen, is a rare occurrence in infants with cardiac failure. Additionally, there are several other uncommon clinical features that may be observed in these cases. Bibasal crackles, which are abnormal sounds heard during breathing, are not commonly present. Raised jugular venous pressure, which is an indication of increased pressure in the heart, is also not frequently seen. A third heart sound, which is an extra sound heard during a heartbeat, and pulsus alternans, which is a regular alternation of strong and weak pulses, are also uncommon in infants with cardiac failure. These features may be helpful in distinguishing cardiac failure from other conditions in infants.

Differential Diagnosis for a Child with Respiratory Symptoms

When a child presents with respiratory symptoms, it is important to consider various differential diagnoses. In the case of a short duration of non-productive cough, an audible wheeze, and unilateral wheeze on auscultation, an inhaled foreign body should be considered as a possible cause. Other potential diagnoses include croup, bronchiolitis, pneumonia, and asthma.

Croup, caused by a virus such as the parainfluenza virus, is characterized by a barking-seal-like cough and may be accompanied by stridor. Bronchiolitis, on the other hand, typically follows a coryzal period of cough and/or cold and causes respiratory distress as evidenced by accessory muscle usage, nasal flare, and tachypnea. It is also characterized by widespread inspiratory crepitations.

Pneumonia should also be included in the differential diagnosis, but the lack of respiratory distress and fever, as well as the absence of a productive cough, make it less likely. Asthma, which is rarely diagnosed in children of this age, would present with sudden onset respiratory distress and widespread wheezing.

In summary, a thorough evaluation of the patient’s symptoms and clinical findings is necessary to arrive at an accurate diagnosis and appropriate treatment plan.

It is unprofessional to disregard the concerns regarding the patient’s participation in the trial. As an F1 doctor, it would be an extreme measure to remove the child from the trial or report the matter to the GMC without consulting a senior colleague first. It would be advisable to discuss the parents’ comprehension of the trial, but it would be more appropriate to approach the consultant initially, as they would have more knowledge of the research being conducted. The GMC guidelines also state that children and young people should not be involved in research if they object or appear to object, even if their parents provide consent.

Guidelines for Obtaining Consent in Children

The General Medical Council has provided guidelines for obtaining consent in children. According to these guidelines, young people who are 16 years or older can be treated as adults and are presumed to have the capacity to make decisions. However, for children under the age of 16, their ability to understand what is involved determines whether they have the capacity to decide. If a competent child refuses treatment, a person with parental responsibility or the court may authorize investigation or treatment that is in the child’s best interests.

When it comes to providing contraceptives to patients under 16 years of age, the Fraser Guidelines must be followed. These guidelines state that the young person must understand the professional’s advice, cannot be persuaded to inform their parents, is likely to begin or continue having sexual intercourse with or without contraceptive treatment, and will suffer physical or mental health consequences without contraceptive treatment. Additionally, the young person’s best interests require them to receive contraceptive advice or treatment with or without parental consent.

Some doctors use the term Fraser competency when referring to contraception and Gillick competency when referring to general issues of consent in children. However, rumors that Victoria Gillick removed her permission to use her name or applied copyright have been debunked. It is important to note that in Scotland, those with parental responsibility cannot authorize procedures that a competent child has refused.

Whenever there is suspicion of non-accidental injury (NAI), it is important to consider the patient’s clinical history. Child abuse is commonly associated with fractures in the radial, humeral, and femoral bones. On the other hand, fractures in the distal radial, elbow, clavicular, and tibial bones are not typically linked to NAI in paediatrics.

Recognizing Child Abuse: Signs and Symptoms

Child abuse is a serious issue that can have long-lasting effects on a child’s physical and emotional well-being. It is important to be able to recognize the signs and symptoms of child abuse in order to intervene and protect the child. One possible indicator of abuse is when a child discloses abuse themselves. However, there are other factors that may point towards abuse, such as an inconsistent story with injuries, repeated visits to A&E departments, delayed presentation, and a frightened, withdrawn appearance known as frozen watchfulness.

Physical presentations of child abuse can also be a sign of abuse. These may include bruising, fractures (especially metaphyseal, posterior rib fractures, or multiple fractures at different stages of healing), torn frenulum (such as from forcing a bottle into a child’s mouth), burns or scalds, failure to thrive, and sexually transmitted infections like Chlamydia, gonorrhoeae, and Trichomonas. It is important to be aware of these signs and symptoms and to report any concerns to the appropriate authorities to ensure the safety and well-being of the child.