Congenital diaphragmatic hernia, often called CDH, is a birth defect that happens when the diaphragm does not form in the usual way before birth. The diaphragm is the thin muscle that separates the chest from the belly. When there is a hole or weak area in this muscle, organs such as the stomach, bowel, liver, or spleen can move up into the chest. This can press on the lungs and heart and can stop the lungs from growing well. Because of this, breathing problems after birth can be very serious. CDH can happen by itself, or it can happen with other birth defects or genetic conditions. In many babies, the exact cause is still not known. [1][2][3]
In very simple words, congenital diaphragmatic hernia means that a baby is born with a problem in the wall between the chest and the belly. During pregnancy, this wall should close and become a strong breathing muscle. In CDH, part of it does not close well. Then belly organs move into the chest and take up the space where the lungs should grow. The lungs may stay small, which is called pulmonary hypoplasia. The blood vessels in the lungs may also stay tight and abnormal, which can lead to pulmonary hypertension, a dangerous pressure problem in the lungs after birth. These two problems are the main reasons CDH can be life-threatening. [1][2][3][5]
Congenital diaphragmatic hernia, often called CDH, is a birth defect in which there is a hole or weak area in the diaphragm, the muscle that helps breathing. Because of this opening, the stomach, bowel, spleen, and sometimes the liver can move up into the chest before birth. This crowds the lungs and can stop them from growing well. Many babies with CDH are very sick at birth because they have small lungs and high pressure in the lung blood vessels, called pulmonary hypertension. Treatment usually needs intensive care first and surgery later, after the baby becomes more stable. 1 2 3
CDH treatment is not based on one single “cure medicine.” The main treatment is careful breathing support, blood pressure support, feeding support, and surgical repair. Some medicines are FDA-approved for related problems such as pulmonary hypertension or hypoxic respiratory failure, while others are commonly used in CDH care as supportive or off-label neonatal medicines. I am keeping that distinction clear so the article stays accurate and evidence-based. 1 3 4
Another names
Congenital diaphragmatic hernia is also called CDH, diaphragmatic hernia present at birth, birth diaphragmatic hernia, and sometimes a congenital Bochdalek hernia when it is the common back-side type. Doctors may also describe it by side, such as left-sided CDH, right-sided CDH, or bilateral CDH when both sides are involved. Some sources also separate diaphragmatic eventration, which is a very thin or weak diaphragm, from true CDH because eventration is not always the same as an actual hole. [1][4][5]
Types
Bochdalek hernia is the most common type. It is usually a hole in the back and side part of the diaphragm. Most cases are on the left side, fewer are on the right side, and a small number are on both sides. [4][5]
Morgagni hernia is a less common type. It happens in the front part of the diaphragm, near the breastbone. It may cause milder symptoms in some babies and may even be found later in childhood. [4][6]
Central diaphragmatic defect is a rarer type. The opening is more in the middle part of the diaphragm. This type is uncommon, but it can still allow abdominal organs to move into the chest. [1][6]
Left-sided CDH means the defect is on the left side. This is the most common side. It often allows the stomach and bowel to move into the chest. [4][5]
Right-sided CDH means the defect is on the right side. The liver may move upward in this type, and careful imaging is often needed to understand how severe it is. [4][5]
Bilateral CDH means defects are present on both sides. This is rare and is often more severe because both lungs can be affected. [4]
Diaphragmatic eventration is a very thin, weak, or poorly developed diaphragm. Some doctors list it near CDH because it can look similar on scans, but it is not always a true hernia with a hole. [4]
Causes
The exact cause of CDH is often unknown, especially when it happens alone. Even so, researchers have found many linked causes, risk factors, and associated conditions. These should be understood as possible causes or known associations, not as one single proven cause for every baby. [1][2][7]
1. Abnormal diaphragm development early in pregnancy can stop the muscle from closing normally. This is the basic developmental problem in CDH. [1][2]
2. Changes in genes that guide diaphragm formation can play a role. Several genes help control early body development, and changes in them can raise the risk of CDH. [2][7]
3. GATA4 gene changes have been linked with some cases. This gene helps early tissue and organ development. [2][7]
4. ZFPM2 gene changes have also been linked with CDH. This gene works with other genes that control development of the diaphragm and lungs. [2][7]
5. NR2F2 gene changes may be involved in some babies. This gene is important in early organ formation. [7]
6. WT1 gene changes are another known genetic link. Problems in this pathway can affect normal fetal development. [7]
7. Chromosome abnormalities can be a cause in some babies. This means there is extra, missing, or changed chromosome material affecting many genes at once. [2][7]
8. Trisomy 18 is one chromosome disorder that can be associated with CDH. [2][7]
9. Trisomy 13 is another chromosome disorder that may include CDH among many birth defects. [2][7]
10. Pallister-Killian syndrome is a genetic syndrome strongly linked with CDH in some babies. [7]
11. Fryns syndrome is a well-known syndrome associated with CDH and other body differences. [2][8]
12. Other syndromic birth defect patterns may include CDH together with heart, brain, kidney, genital, or limb problems. [1][2]
13. Copy number variants can contribute. This means a small piece of chromosome is missing or duplicated, affecting important growth genes. [7]
14. Problems in retinoic acid or vitamin A signaling during fetal development are thought to be involved in some cases based on research on diaphragm formation. [7]
15. Family inheritance in rare cases can happen, although most CDH cases are not strongly inherited. [1][2]
16. Isolated developmental error with no known syndrome is common. Many babies have CDH alone with no clear genetic diagnosis. [2]
17. Multiple birth defects from one shared early developmental problem can also lead to CDH. In these cases, the diaphragm is one of several organs affected. [2]
18. Maternal cigarette smoking has been linked with CDH risk in epidemiologic studies, though it is not the cause in every case. [9]
19. Maternal alcohol use around the time of conception has also been studied as a possible risk factor. [9]
20. Unknown environmental and genetic interaction is likely important in many babies, meaning genes and pregnancy exposures may act together in ways medicine does not fully understand yet. [2][7]
Symptoms
Many babies with CDH become sick very soon after birth because the lungs are small and breathing is hard. A few mild cases are found later in infancy or childhood. The symptoms depend on how big the defect is, which organs moved into the chest, and how small the lungs are. [1][3][4]
1. Severe breathing difficulty is one of the most common signs. The baby struggles to move air because the lungs are underdeveloped. [1][3]
2. Fast breathing may happen as the baby tries to get enough oxygen. [3][6]
3. Blue lips or blue skin, also called cyanosis, can happen when oxygen is too low. [3][10]
4. Low oxygen levels may be seen on monitoring even when oxygen is given. This can happen because of lung disease and pulmonary hypertension. [3][10]
5. A scaphoid abdomen, which means the belly looks flat or hollow, is a classic sign because some belly organs are sitting in the chest instead of the abdomen. [10]
6. Chest movement may look uneven because one side of the chest may be fuller than normal. [6][10]
7. Decreased breath sounds on one side can be found when a doctor listens to the chest. There may be less air entering the affected side. [3][6]
8. Heart sounds may be pushed away from the usual place because the heart can shift to the opposite side. [1][6]
9. Bowel sounds in the chest may sometimes be heard because bowel loops have moved upward. [3][6]
10. Rapid heart rate can happen because the baby is under stress and not getting enough oxygen. [3]
11. Pulmonary hypertension signs may develop, meaning the blood pressure in the lungs becomes dangerously high. [3][10]
12. Poor feeding can be seen in milder or later-presenting cases. [1][4]
13. Vomiting may happen in later-presenting babies when the stomach or bowel is involved in the chest. [1][4]
14. Belly pain or chest pain can occur in children diagnosed later. [1][4]
15. Failure to grow well or poor weight gain may appear in survivors because CDH can affect breathing, feeding, and digestion over time. [3][5]
Diagnostic tests
Doctors use a group of tests before birth and after birth. Some tests help find CDH, some help judge severity, and some help look for other problems like heart defects, lung pressure, or genetic conditions. True electrodiagnostic tests are not the main way CDH is diagnosed, but a few electrical or physiologic monitoring tests can still help in the full evaluation. [3][5][11]
Physical exam tests
1. General newborn inspection is very important. Doctors look for severe breathing distress, blue color, chest shape changes, and signs that the baby is critically ill. [3][10]
2. Abdominal shape exam checks for a flat or hollow belly, which can suggest that abdominal organs are not in the normal place. [10]
3. Chest auscultation with a stethoscope looks for reduced breath sounds and, in some babies, bowel sounds in the chest. [3][6]
4. Heart position exam checks whether the heart seems pushed away from its normal place by organs in the chest. [1][6]
Manual test and bedside assessment tests
5. Prenatal maternal-fetal physical assessment is part of the workup after a fetal scan suggests CDH. It helps guide pregnancy care and delivery planning, though it does not confirm the defect by itself. [5][11]
6. Apgar score after birth is a simple bedside score of color, breathing, heart rate, muscle tone, and reflexes. It does not diagnose CDH alone, but it shows how sick the baby is right after delivery. Lower Apgar scores are linked with worse outcomes. [12]
7. Pre- and post-ductal oxygen saturation comparison is a bedside check using pulse sensors on different limbs. It helps doctors recognize major oxygenation problems and possible pulmonary hypertension. [10]
8. Blood pressure and perfusion assessment is another bedside evaluation. It helps show whether the baby has poor circulation from severe lung and heart strain. [10]
Lab and pathological tests
9. Arterial blood gas measures oxygen, carbon dioxide, and blood acidity. It helps doctors judge how severe the breathing failure is. [10][11]
10. Capillary or venous blood gas may also be used if an arterial sample is not available right away. It gives supportive information about gas exchange. [10]
11. Complete blood count is not a test that proves CDH, but it helps check for anemia, infection, and overall illness in a very sick newborn. [11]
12. Blood chemistry tests may be done to check glucose, salts, kidney function, and metabolic stress while the baby is being stabilized. [11]
13. Genetic testing can be very important, especially when CDH happens with other birth defects. Tests may include chromosome studies or more advanced genetic analysis to look for syndromes and gene changes. [2][7]
Electrodiagnostic and physiologic monitoring tests
14. Electrocardiogram, or ECG records the electrical activity of the heart. It does not diagnose the diaphragmatic hole itself, but it can help assess heart strain, rhythm problems, and the overall cardiorespiratory condition of the baby. [10]
15. Continuous cardiorespiratory monitoring tracks heart rate, breathing rate, and oxygen saturation. This is important in sick newborns with CDH because breathing failure and pulmonary hypertension can change quickly. [10]
16. End-tidal carbon dioxide monitoring may be used after intubation to help confirm the breathing tube position and watch ventilation status. It is part of physiologic monitoring during urgent care. [10]
Imaging tests
17. Prenatal ultrasound is the main test that finds many CDH cases during pregnancy. It can show stomach or bowel in the chest, shift of the heart, and small lung size. [5][11]
18. Detailed level II ultrasound gives a more careful look at the fetus. It is used to confirm the suspicion, look for other birth defects, and estimate how serious the CDH may be. [5][11]
19. Fetal MRI gives extra detail about lung volume and liver position. These findings help doctors estimate severity and plan care before birth. [5][11]
20. Fetal echocardiogram is a special ultrasound of the baby’s heart during pregnancy. It is used because heart structure and function matter a lot in CDH. [5][11]
21. Chest X-ray after birth is one of the most important postnatal imaging tests. It can show bowel loops or the stomach in the chest and can confirm the diagnosis quickly. [10][11]
22. Abdominal X-ray may be used together with the chest film to understand organ position and help with immediate care. [10][11]
23. Postnatal echocardiogram checks the baby’s heart and looks for pulmonary hypertension and other heart defects. This test is very important because lung pressure problems are common in CDH. [10][11]
Non-Pharmacological Treatments
1. Gentle mechanical ventilation. Doctors use low-pressure breathing support to reduce lung injury. The purpose is to move enough air without damaging the baby’s small lungs. The mechanism is simple: lower pressures reduce over-stretching and barotrauma. 1 3
2. Immediate intubation when needed. Many newborns with severe CDH are intubated soon after birth instead of receiving bag-mask breaths. The purpose is to protect the lungs and reduce air entry into the stomach and bowel. The mechanism is that less gas enters the herniated bowel, so the lungs are not compressed even more. 1 4
3. Avoiding bag-mask ventilation. This is a very important early step. The purpose is to prevent the stomach and intestines from filling with air. The mechanism is that less bowel swelling inside the chest means less pressure on the lungs and heart. 1 3
4. Gastric decompression with an orogastric or nasogastric tube. A tube is placed to remove swallowed air and stomach contents. The purpose is to make more space in the chest and reduce vomiting risk. The mechanism is direct decompression of the stomach and bowel. 1 4
5. Targeted oxygen saturation management. Teams usually aim for safe oxygen levels rather than very high oxygen. The purpose is to give enough oxygen while limiting oxygen-related injury. The mechanism is reducing oxidative stress while maintaining tissue oxygen delivery. 3 4
6. Permissive hypercapnia. In selected babies, doctors may accept a somewhat higher carbon dioxide level. The purpose is to avoid very aggressive ventilation. The mechanism is lung protection, because lower ventilator pressure can be used. 3 1
7. High-frequency ventilation as rescue support. Some babies need HFOV or HFJV when standard ventilation is not enough. The purpose is better gas exchange with lower tidal stretch. The mechanism is rapid very small breaths that can reduce lung injury. 5 4
8. Careful fluid management. Too much fluid can worsen lung swelling, but too little can lower blood pressure. The purpose is stable circulation and less edema. The mechanism is balancing heart output, kidney function, and lung fluid. 1 6
9. Echocardiography-guided care. Heart ultrasound is used again and again in severe CDH. The purpose is to identify pulmonary hypertension, poor heart function, or ductal shunting. The mechanism is better treatment selection based on real-time heart and circulation findings. 6 1
10. Delayed surgery after stabilization. Many babies do better when surgery is done after breathing and blood pressure improve. The purpose is safer repair. The mechanism is giving the lungs and circulation time to stabilize before the operation. 2 4
11. Open surgical repair. This is a standard operation for many larger or sicker cases. The purpose is to move organs back into the abdomen and close the diaphragm defect. The mechanism is restoring anatomy so the lungs and heart have better space. 2 7
12. Thoracoscopic repair in selected babies. Some stable infants may be repaired using minimally invasive surgery. The purpose is smaller cuts and sometimes faster recovery. The mechanism is internal repair through small ports, but it is best only in properly selected patients and experienced centers. 8 9
13. Patch repair for large defects. When the hole is too big, a patch may be needed. The purpose is to close defects that cannot be sewn together safely. The mechanism is replacing the missing diaphragm area with a patch material. 2 8
14. ECMO for rescue support. Extracorporeal membrane oxygenation is used in the most severe cases. The purpose is to support oxygen delivery and circulation when the lungs and heart cannot do enough. The mechanism is an external machine that oxygenates blood outside the body. 10 11
15. Specialized neonatal intensive care. Babies with CDH do best in centers with NICU, pediatric surgery, cardiology, and ECMO access. The purpose is expert coordinated care. The mechanism is fast decision-making by a multidisciplinary team. 4 12
16. Feeding therapy. Many survivors have reflux, poor sucking, oral aversion, or slow growth. The purpose is safer feeding and better weight gain. The mechanism is stepwise feeding plans, swallowing work, and texture practice. 13 14
17. Tube feeding when needed. Some infants need NG tube or gastrostomy feeding. The purpose is to meet calorie needs when oral feeding is poor. The mechanism is giving reliable nutrition despite tired breathing or oral aversion. 15 13
18. Long-term growth monitoring. Weight, length, and head growth need regular follow-up. The purpose is early detection of failure to thrive. The mechanism is finding calorie deficits, feeding problems, reflux, or chronic lung disease early. 13 16
19. Reflux monitoring and management. Gastroesophageal reflux is common after CDH. The purpose is to reduce pain, vomiting, feeding refusal, and poor growth. The mechanism is lifestyle changes, positioning guidance, testing when needed, and selected medicine or surgery. 17 18
20. Lifelong follow-up in higher-risk survivors. Some children and adults need ongoing review for breathing, feeding, reflux, scoliosis, hearing, and recurrence. The purpose is to catch late problems early. The mechanism is structured follow-up clinics over time. 13 19
Drug Treatments
1. Inhaled nitric oxide (INOMAX). This FDA-approved inhaled gas is used for term and near-term newborns with hypoxic respiratory failure and pulmonary hypertension. In CDH, it may help selected babies with serious pulmonary hypertension. It relaxes lung blood vessels. Common concerns include rebound pulmonary hypertension when stopping too fast. 20 1
2. Sildenafil (REVATIO). Sildenafil is a PDE-5 inhibitor approved by FDA for pulmonary arterial hypertension, including pediatric patients 1 to 17 years for that indication. In CDH, it is often used off-label for persistent pulmonary hypertension. It works by increasing nitric oxide signaling and relaxing pulmonary vessels. Side effects can include low blood pressure, flushing, and stomach upset. 21 4
3. Bosentan (TRACLEER). Bosentan is an endothelin receptor blocker approved for pulmonary arterial hypertension, with pediatric data in PAH. In CDH it may be considered in difficult pulmonary hypertension cases, usually as specialist care. It reduces endothelin-driven vessel tightening. Important risks include liver injury and anemia. 22 6
4. Epoprostenol (FLOLAN/VELETRI). Epoprostenol is FDA-approved for pulmonary arterial hypertension and may be used in expert centers for severe pulmonary vascular disease. It is a strong vasodilator and platelet inhibitor. Side effects include flushing, jaw pain, low blood pressure, and bleeding risk. 23 24
5. Alprostadil (PROSTIN VR Pediatric). This FDA-approved medicine keeps the ductus arteriosus open in certain newborn heart conditions. In severe CDH, specialists may use it off-label to reduce right heart strain and unload the lungs in some circulation patterns. Risks include apnea, fever, and low blood pressure. 25 26
6. Dopamine. Dopamine is an FDA-labeled vasopressor/inotrope used intravenously. In CDH it may support blood pressure when circulation is weak. It works by increasing vascular tone and cardiac output, depending on dose. Side effects include arrhythmia, vasoconstriction, and tissue injury if the drug leaks out of the vein. 27 6
7. Dobutamine. Dobutamine is often used when the heart needs help pumping better, especially with ventricular dysfunction. In CDH, it may improve systemic blood flow more than simple vasoconstriction. It works mainly by raising heart contractility. Side effects can include fast heart rate and arrhythmias. 6 1
8. Norepinephrine. Norepinephrine may be used in shock with low blood pressure. In CDH it is a rescue circulation medicine in selected babies. It works by tightening blood vessels and supporting pressure. Too much can reduce blood flow to some tissues. 6 1
9. Epinephrine. Epinephrine may be chosen in severe shock or during resuscitation. It raises heart output and vascular tone. Side effects include high lactate, arrhythmia, and excess stress on the heart. 6 3
10. Milrinone. Milrinone is commonly used off-label in neonates with pulmonary hypertension and heart dysfunction. In CDH it may help when the heart is weak and lung vascular resistance is high. It works by increasing contractility and causing vasodilation. Low blood pressure is a key concern. 6 1
11. Vasopressin. Vasopressin may be used in refractory shock. It works through vasoconstriction by a different pathway than catecholamines. In severe CDH, it is specialist rescue support. Risks include poor blood flow to skin or gut if the dose is too strong. 6
12. Fentanyl. Fentanyl is often used for pain control and sedation in ventilated newborns. In CDH this can reduce stress, oxygen demand, and ventilator fighting. It works as an opioid analgesic. Side effects include chest wall rigidity, low breathing drive, and constipation. 1 11
13. Morphine. Morphine is another opioid used for pain and sedation. The purpose is comfort and better ventilator synchrony. It works by reducing pain signaling in the central nervous system. Side effects include low blood pressure, slowed breathing, and gut slowing. 1 11
14. Midazolam. Midazolam may be added for sedation in selected cases. It reduces agitation and can help with procedures. It works through GABA receptors in the brain. Side effects include low blood pressure and prolonged sedation. 1 11
15. Parenteral nutrition solutions. Intravenous nutrition is often needed when full milk feeds are not yet safe. The purpose is to provide calories, amino acids, fats, vitamins, and minerals. The mechanism is direct nutrition through the bloodstream. Risks include line infection and liver problems with long use. 13 28
16. Proton pump inhibitors. PPIs are not for all babies, but they may be used when significant reflux is present after repair. They reduce stomach acid. The purpose is to lessen acid injury and feeding pain. Overuse is not recommended without reason. 18 17
17. H2 blockers. These medicines may also be used for reflux in selected cases. They reduce acid production by blocking histamine signals in the stomach. The purpose is symptom control, not correction of the hernia itself. 18 17
18. Antibiotics when infection is suspected. CDH does not itself need antibiotics, but very sick newborns may receive them if sepsis is possible. The purpose is to treat or cover serious infection early. The mechanism depends on the specific antibiotic used. 3 1
19. Diuretics in chronic lung disease or fluid overload. Some survivors need diuretics later. The purpose is to reduce extra fluid and improve breathing comfort. The mechanism is increased salt and water loss in urine. Overuse can cause dehydration or low electrolytes. 13 29
20. Palivizumab in selected high-risk infants. This FDA-approved monoclonal antibody is for prevention of serious RSV disease in high-risk children. It is not a CDH-specific drug, but some fragile infants with major lung disease may qualify under specialist guidance. It works by neutralizing RSV. 30 31
Dietary Molecular Supplements
There is no supplement that cures CDH. Supplements are supportive and should be chosen by the baby’s doctor or dietitian because needs vary by feeding ability, growth, reflux, and lab results. Common evidence-based supportive choices include iron, vitamin D, multivitamins, calcium, phosphate, zinc, protein modulars, medium-chain triglyceride oil, omega-3 support in selected diets, and electrolyte supplements when deficiency exists. These support blood building, bone growth, calorie intake, immunity, and recovery, but they are not a replacement for surgery or NICU care. 13 15 28
Immunity Booster, Regenerative, or Stem Cell Drugs
At present, there are no FDA-approved immunity booster drugs, regenerative drugs, or stem cell drugs specifically for CDH treatment. Experimental work has explored cell-based and fetal regenerative ideas, but these are still research topics and are not standard bedside treatment for routine CDH care. Families should be very careful with any clinic or website promising a “stem cell cure” for CDH. 3 26 13
Surgeries
1. Open diaphragmatic repair closes the defect through a larger incision.
2. Thoracoscopic repair uses small instruments in selected stable babies.
3. Patch repair is used when the hole is too large for direct closure.
4. Abdominal wall or staged closure procedures may be needed if the abdomen is too tight after organs are returned.
5. Anti-reflux surgery such as fundoplication may be considered later in selected children with severe reflux and feeding problems. These operations are done to restore anatomy, improve breathing space, and manage serious long-term complications. 2 8 17
Preventions
CDH itself often cannot be fully prevented because many cases happen during fetal development without a clear single cause. Still, good pregnancy care may lower some congenital risk factors: take folic acid before and early in pregnancy, avoid smoking, avoid alcohol, avoid harmful drugs unless prescribed, control diabetes, get infection care, avoid toxic chemical exposure, attend prenatal scans, use genetic counseling when family history is present, and deliver in a center prepared for high-risk newborn care if CDH is found before birth. 2 3
When to See Doctors
A pregnant mother should see a fetal medicine or pediatric surgery team quickly if a prenatal ultrasound suggests CDH. After birth, urgent medical review is needed for fast breathing, blue color, severe chest retractions, feeding trouble, repeated vomiting, poor weight gain, bad reflux, weak crying, or unusual sleepiness. Long-term survivors also need review for chronic cough, exercise limits, scoliosis, growth delay, and possible recurrence. 12 13 19
What to Eat and What to Avoid
For babies and children after repair, food advice should be individualized. In general, helpful choices include breast milk when possible, energy-dense formula if prescribed, small frequent feeds, enough protein, iron-rich foods, vitamin D support, reflux-friendly meal spacing, soft textures when oral aversion exists, dietitian-guided calorie boosters, and enough fluids. It is wise to avoid overfeeding, very large feeds, foods that worsen reflux in older children, long gaps without calories, unapproved supplements, unsafe herbal products, and any feeding plan not matched to the child’s growth and swallow ability. 13 14 18
FAQs
1. Is CDH a medical emergency? Yes, severe CDH can be life-threatening at birth. 1
2. Can CDH be cured with medicine alone? No, medicine supports the baby, but repair is usually needed. 2
3. Is surgery done immediately after birth? Not always; stabilization often comes first. 4
4. Why are the lungs small in CDH? Chest organs crowd the lungs during fetal growth. 3
5. What is the biggest early danger? Pulmonary hypoplasia and pulmonary hypertension. 1
6. Does every baby need ECMO? No, only the sickest babies may need it. 10
7. Can CDH come back after repair? Yes, recurrence can happen and follow-up matters. 19
8. Is feeding trouble common after CDH? Yes, reflux and oral aversion are common. 14
9. Can children grow normally after CDH? Many do well, but some have long-term growth challenges. 16
10. Are there FDA-approved stem cell drugs for CDH? No. 26
11. Is inhaled nitric oxide a cure? No, it is supportive treatment for selected pulmonary hypertension cases. 20
12. Can reflux need surgery later? Yes, some children may need anti-reflux surgery. 17
13. Should survivors have long-term follow-up? Yes, especially high-risk survivors. 13
14. Can prenatal ultrasound find CDH? Yes, many cases are found before birth. 2
15. What kind of hospital is best? A center with NICU, pediatric surgery, cardiology, and ECMO access is best for severe cases. 12 4
Disclaimer: Each person’s journey is unique, treatment plan, life style, food habit, hormonal condition, immune system, chronic disease condition, geological location, weather and previous medical history is also unique. So always seek the best advice from a qualified medical professional or health care provider before trying any treatments to ensure to find out the best plan for you. This guide is for general information and educational purposes only. Regular check-ups and awareness can help to manage and prevent complications associated with these diseases conditions. If you or someone are suffering from this disease condition bookmark this website or share with someone who might find it useful! Boost your knowledge and stay ahead in your health journey. We always try to ensure that the content is regularly updated to reflect the latest medical research and treatment options. Thank you for giving your valuable time to read the article.
The article is written by Team RxHarun and reviewed by the Rx Editorial Board Members
Last Updated: March 31, 2025.
