umarjan11/Medical-qna huggingface dataset:
Question: Is Focal dermal hypoplasia inherited ?

Answer: How is this condition inherited? Focal dermal hypoplasia is caused by mutations in the PORCN gene and is inherited in an X-linked dominant manner. Many cases of focal dermal hypoplasia result from a new mutation and occur in people with no history of the disorder in their family For a woman affected with focal dermal hypoplasia, the theoretical risk of passing the mutation to each of her offspring is 50%; however, many males with this condition do not survive. In addition, there are cases in which a woman may have the focal dermal hypoplasia mutation in some but not all of her egg cells, a condition known as germline mosaicism. In this case the risk of passing along the mutation may be as high as 50% depending on the level of mosaicism. Males with focal dermal hypoplasia typically have the mutation in some but not all of their cells. The risk that a male with FDH will pass the condition on to his daughters may be as high as 100%; men do not pass this condition on to their sons. We recommend discussing specific concerns with a genetics professional, who can help you understand how this condition might be inherited in your family. Click on the following link for resources for finding a genetics professional.
Question: Is Alpha-thalassemia x-linked intellectual disability syndrome inherited ?

Answer: How is alpha-thalassemia x-linked intellectual disability syndrome inherited? Alpha-thalassemia x-linked intellectual disability (ATRX) syndrome is caused by a mutation in the ATRX gene and is inherited in an x-linked way.  The chance that a relative may have ATRX syndrome depends on whether the mutation in the first affected family member was inherited from his mother or happened by chance (a de novo mutation).  If the mutation happened by chance, there is very little risk that other relatives could be affected by this condition.  If the mutation was inherited from his mother, each of his mother's sisters has a 50% of being a carrier of ATRX syndrome.  If a woman is a carrier of an ATRX mutation, she has a 25% chance of having a son with the mutation who is affected with ATRX syndrome; a 25% chance of having a son who does not have the mutation and does not have ATRX syndrome; a 25% chance of having a daughter with the mutation who is a carrier of ATRX syndrome; and a 25% chance of having a daughter who does not have the mutation and is not a carrier.
Question: What are the treatments for Kyrle disease ?

Answer: How might Kyrle disease be treated? Kyrle disease is most often associated with a systemic disorder, although idiopathic cases without any associated disease have occurred. Therefore, treatment is typically directed toward the underlying condition when appropriate. For individuals in whom itching is a major problem, soothing antipruritic lotions containing menthol and camphor may be helpful. Sedating antihistamines such as hydroxyzine may also be helpful for pruritus, especially at night. Some improvement has been reported with high doses of vitamin A, with or without vitamin E. Topical retinoic acid cream may also improve the symptoms. Another approach to treatment uses oral retinoids, which resulted in alleviation of symptoms in one study. Etretinate in high doses is also reportedly effective, but relapse has been reported following discontinuation of therapy. UV light therapy is reportedly particularly helpful for individuals with widespread lesions or coexisting pruritus from renal or hepatic disease. Carbon dioxide laser or cryosurgery may be helpful for limited lesions, but caution may be recommended for individuals with dark skin, especially with cryosurgery, and for lesions on the lower legs, particularly in patients with diabetes mellitus or poor circulation.
Question: What causes Dominant dystrophic epidermolysis bullosa ?

Answer: What causes dominant dystrophic epidermolysis bullosa? Dominant dystrophic epidermolysis bullosa (DDEB) is caused by mutations in the COL7A1 gene. The COL7A1 gene provides instructions for making a protein that is used to assemble type VII collagen. Collagen gives structure and strength to connective tissues, such as skin, tendons, and ligaments, throughout the body. Type VII collagen plays an important role in strengthening and stabilizing the skin. It is the main component of structures called anchoring fibrils, which anchor the top layer of skin, called the epidermis, to an underlying layer called the dermis. COL7A1 mutations alter the structure or disrupt the production of type VII collagen, which impairs its ability to help connect the epidermis to the dermis. When type VII collagen is abnormal or missing, friction or other minor trauma can cause the two skin layers to separate. This separation leads to the formation of blisters, which can cause extensive scarring as they heal. A diagram of the skin structure including the area of skin implicated in DDEB is provided by the National Institute of Arthritis and Musculoskeletal and Skin Diseases. Click on the link for more.
Question: What is (are) Foot Drop ?

Answer: Foot drop describes the inability to raise the front part of the foot due to weakness or paralysis of the muscles that lift the foot. As a result, individuals with foot drop scuff their toes along the ground or bend their knees to lift their foot higher than usual to avoid the scuffing, which causes what is called a steppage gait. Foot drop can be unilateral (affecting one foot) or bilateral (affecting both feet). Foot drop is a symptom of an underlying problem and is either temporary or permanent, depending on the cause. Causes include: neurodegenerative disorders of the brain that cause muscular problems, such as multiple sclerosis, stroke, and cerebral palsy; motor neuron disorders such as polio, some forms of spinal muscular atrophy and amyotrophic lateral sclerosis (commonly known as Lou Gehrigs disease); injury to the nerve roots, such as in spinal stenosis; peripheral nerve disorders such as Charcot-Marie-Tooth disease or acquired peripheral neuropathy; local compression or damage to the peroneal nerve as it passes across the fibular bone below the knee; and muscle disorders, such as muscular dystrophy or myositis.
Question: What is (are) Myoclonus ?

Answer: Myoclonus refers to a sudden, involuntary jerking of a muscle or group of muscles. In its simplest form, myoclonus consists of a muscle twitch followed by relaxation. A hiccup is an example of this type of myoclonus. Other familiar examples of myoclonus are the jerks or "sleep starts" that some people experience while drifting off to sleep. These simple forms of myoclonus occur in normal, healthy persons and cause no difficulties. When more widespread, myoclonus may involve persistent, shock-like contractions in a group of muscles. Myoclonic jerking may develop in people with multiple sclerosis, Parkinson's disease, Alzheimer's disease, or Creutzfeldt-Jakob disease. Myoclonic jerks commonly occur in persons with epilepsy, a disorder in which the electrical activity in the brain becomes disordered and leads to seizures. Myoclonus may develop in response to infection, head or spinal cord injury, stroke, brain tumors, kidney or liver failure, lipid storage disease, chemical or drug poisoning, or other disorders. It can occur by itself, but most often it is one of several symptoms associated with a wide variety of nervous system disorders.
Question: What are the treatments for spinal muscular atrophy ?

Answer: These resources address the diagnosis or management of spinal muscular atrophy:  - Gene Review: Gene Review: Spinal Muscular Atrophy  - Gene Review: Gene Review: Spinal Muscular Atrophy, X-Linked Infantile  - Genetic Testing Registry: Adult proximal spinal muscular atrophy, autosomal dominant  - Genetic Testing Registry: Arthrogryposis multiplex congenita, distal, X-linked  - Genetic Testing Registry: Kugelberg-Welander disease  - Genetic Testing Registry: Spinal muscular atrophy type 4  - Genetic Testing Registry: Spinal muscular atrophy, lower extremity predominant 1, autosomal dominant  - Genetic Testing Registry: Spinal muscular atrophy, type II  - Genetic Testing Registry: Werdnig-Hoffmann disease  - Genomics Education Programme (UK)  - MedlinePlus Encyclopedia: Spinal Muscular Atrophy   These resources from MedlinePlus offer information about the diagnosis and management of various health conditions:  - Diagnostic Tests  - Drug Therapy  - Surgery and Rehabilitation  - Genetic Counseling   - Palliative Care
Question: What are the genetic changes related to Stickler syndrome ?

Answer: Mutations in several genes cause the different types of Stickler syndrome. Between 80 and 90 percent of all cases are classified as type I and are caused by mutations in the COL2A1 gene. Another 10 to 20 percent of cases are classified as type II and result from mutations in the COL11A1 gene. Marshall syndrome, which may be a variant of Stickler syndrome, is also caused by COL11A1 gene mutations. Stickler syndrome types III through VI result from mutations in other, related genes.  All of the genes associated with Stickler syndrome provide instructions for making components of collagens, which are complex molecules that give structure and strength to the connective tissues that support the body's joints and organs. Mutations in any of these genes impair the production, processing, or assembly of collagen molecules. Defective collagen molecules or reduced amounts of collagen impair the development of connective tissues in many different parts of the body, leading to the varied features of Stickler syndrome.  Not all individuals with Stickler syndrome have mutations in one of the known genes. Researchers believe that mutations in other genes may also cause this condition, but those genes have not been identified.
Question: What are the genetic changes related to multiple lentigines syndrome ?

Answer: Mutations in the PTPN11, RAF1, or BRAF genes cause multiple lentigines syndrome. Approximately 90 percent of individuals with multiple lentigines syndrome have mutations in the PTPN11 gene. RAF1 and BRAF gene mutations are responsible for a total of about 10 percent of cases. A small proportion of people with multiple lentigines syndrome do not have an identified mutation in any of these three genes. In these individuals, the cause of the condition is unknown.  The PTPN11, RAF1, and BRAF genes all provide instructions for making proteins that are involved in important signaling pathways needed for the proper formation of several types of tissue during development. These proteins also play roles in the regulation of cell division, cell movement (migration), and cell differentiation (the process by which cells mature to carry out specific functions).  Mutations in the PTPN11, RAF1, or BRAF genes lead to the production of a protein that functions abnormally. This abnormal functioning impairs the protein's ability to respond to cell signals. A disruption in the regulation of systems that control cell growth and division leads to the characteristic features of multiple lentigines syndrome.
Question: What is (are) peroxisomal acyl-CoA oxidase deficiency ?

Answer: Peroxisomal acyl-CoA oxidase deficiency is a disorder that causes deterioration of nervous system functions (neurodegeneration) beginning in infancy. Newborns with peroxisomal acyl-CoA oxidase deficiency have weak muscle tone (hypotonia) and seizures. They may have unusual facial features, including widely spaced eyes (hypertelorism), a low nasal bridge, and low-set ears. Extra fingers or toes (polydactyly) or an enlarged liver (hepatomegaly) also occur in some affected individuals.  Most babies with peroxisomal acyl-CoA oxidase deficiency learn to walk and begin speaking, but they experience a gradual loss of these skills (developmental regression), usually beginning between the ages of 1 and 3. As the condition gets worse, affected children develop exaggerated reflexes (hyperreflexia), increased muscle tone (hypertonia), more severe and recurrent seizures (epilepsy), and loss of vision and hearing. Most children with peroxisomal acyl-CoA oxidase deficiency do not survive past early childhood.
Question: What is (are) hypochondrogenesis ?

Answer: Hypochondrogenesis is a rare, severe disorder of bone growth. This condition is characterized by a small body, short limbs, and abnormal bone formation (ossification) in the spine and pelvis.  Affected infants have short arms and legs, a small chest with short ribs, and underdeveloped lungs. Bones in the skull develop normally, but the bones of the spine (vertebrae) and pelvis do not harden (ossify) properly. The face appears flat and oval-shaped, with widely spaced eyes, a small chin, and, in some cases, an opening in the roof of the mouth called a cleft palate. Individuals with hypochondrogenesis have an enlarged abdomen and may have a condition called hydrops fetalis in which excess fluid builds up in the body before birth.  As a result of these serious health problems, some affected fetuses do not survive to term. Infants born with hypochondrogenesis usually die at birth or shortly thereafter from respiratory failure. Babies who live past the newborn period are usually reclassified as having spondyloepiphyseal dysplasia congenita, a related but milder disorder that similarly affects bone development.
Question: What is (are) monilethrix ?

Answer: Monilethrix is a condition that affects hair growth. Its most characteristic feature is that individual strands of hair have a beaded appearance like the beads of a necklace. The name monilethrix comes from the Latin word for necklace (monile) and the Greek word for hair (thrix). Noticeable when viewed under a microscope, the beaded appearance is due to periodic narrowing of the hair shaft. People with monilethrix also have sparse hair growth (hypotrichosis) and short, brittle hair that breaks easily.  Affected individuals usually have normal hair at birth, but the hair abnormalities develop within the first few months of life. In mild cases of monilethrix, only hair on the back of the head (occiput) or nape of the neck is affected. In more severe cases, hair over the whole scalp can be affected, as well as pubic hair, underarm hair, eyebrows, eyelashes, or hair on the arms and legs.  Occasionally, the skin and nails are involved in monilethrix. Some affected individuals have a skin condition called keratosis pilaris, which causes small bumps on the skin, especially on the scalp, neck, and arms. Affected individuals may also have abnormal fingernails or toenails.
Question: What are the genetic changes related to Kuskokwim syndrome ?

Answer: Kuskokwim syndrome is caused by mutations in the FKBP10 gene, which provides instructions for making the FKBP10 protein (formerly known as FKBP65). This protein is important for the correct processing of complex molecules called collagens, which provide structure and strength to connective tissues that support the body's bones, joints, and organs. Collagen molecules are cross-linked to one another to form long, thin fibrils, which are found in the spaces around cells (the extracellular matrix). The formation of cross-links results in very strong collagen fibrils. The FKBP10 protein attaches to collagens and plays a role in their cross-linking.  A mutation in the FKBP10 gene alters the FKBP10 protein, making it unstable and easily broken down. As a result, people with Kuskokwim syndrome have only about 5 percent of the normal amount of FKBP10 protein. This reduction in protein levels impairs collagen cross-linking and leads to a disorganized network of collagen molecules. It is unclear how these changes in the collagen matrix are involved in the development of joint contractures and other abnormalities in people with Kuskokwim syndrome.
Question: What are the complications of Lupus Nephritis ?

Answer: In many cases, treatment is effective in completely or partially controlling lupus nephritis, resulting in few, if any, further complications. However, even with treatment, 10 to 30 percent of people with lupus nephritis develop kidney failure, described as end-stage renal disease when treated with blood-filtering treatments called dialysis or a kidney transplant.3 Scientists cannot predict who will or will not respond to treatment. The most severe form of lupus nephritis is called diffuse proliferative nephritis. With this type of illness, the kidneys are inflamed, many white blood cells invade the kidneys, and kidney cells increase in number, which can cause such severe damage that scars form in the kidneys. Scars are difficult to treat, and kidney function often declines as more scars form. People with suspected lupus nephritis should get diagnosed and treated as early as possible to prevent such chronic, or long lasting, damage.
                
People with lupus nephritis are at a high risk for cancer, primarily B-cell lymphomaa type of cancer that begins in the cells of the immune system. They are also at a high risk for heart and blood vessel problems.
Question: What is (are) Diabetic Kidney Disease ?

Answer: Diabetes is a complex group of diseases with a variety of causes. People with diabetes have high blood glucose, also called high blood sugar or hyperglycemia.
                
Diabetes is a disorder of metabolism the way the body uses digested food for energy. The digestive tract breaks down carbohydratessugars and starches found in many foodsinto glucose, a form of sugar that enters the bloodstream. With the help of the hormone insulin, cells throughout the body absorb glucose and use it for energy.
                
Insulin is made in the pancreas, an organ located behind the stomach and below the liver. As blood glucose levels rise after a meal, the pancreas is triggered to release insulin. The pancreas contains clusters of cells called pancreatic islets. Beta cells within the pancreatic islets make insulin and release it into the blood.
                
Diabetes develops when the body doesnt make enough insulin, is not able to use insulin effectively, or both. As a result, glucose builds up in the blood instead of being absorbed by cells in the body. The bodys cells are then starved of energy despite high blood glucose levels.
Question: What is (are) Anxiety Disorders ?

Answer: All of us worry about things like health, money, or family problems. But people with generalized anxiety disorder (GAD) are extremely worried about these and many other things, even when there is little or no reason to worry about them. They are very anxious about just getting through the day. They think things will always go badly. At times, worrying keeps people with GAD from doing everyday tasks. People with GAD cant seem to get rid of their concerns, even though they usually realize that their anxiety is more intense than the situation warrants. They cant relax, startle easily, and have difficulty concentrating. Often they have trouble falling asleep or staying asleep. Physical symptoms that often accompany the anxiety include fatigue, headaches, muscle tension, muscle aches, difficulty swallowing, trembling, twitching, irritability, sweating, nausea, lightheadedness, having to go to the bathroom frequently, feeling out of breath, and hot flashes. When their anxiety level is mild, people with GAD can function socially and hold down a job. Although they dont avoid certain situations as a result of their disorder, people with GAD can have difficulty carrying out the simplest daily activities if their anxiety is severe.  Learn more about generalized anxiety disorder (GAD).
Question: what research (or clinical trials) is being done for Endometrial Cancer ?

Answer: Cancer prevention clinical trials are used to study ways to prevent cancer.
                    Cancer prevention clinical trials are used to study ways to lower the risk of developing certain types of cancer. Some cancer prevention trials are conducted with healthy people who have not had cancer but who have an increased risk for cancer. Other prevention trials are conducted with people who have had cancer and are trying to prevent another cancer of the same type or to lower their chance of developing a new type of cancer. Other trials are done with healthy volunteers who are not known to have any risk factors for cancer.    The purpose of some cancer prevention clinical trials is to find out whether actions people take can prevent cancer. These may include eating fruits and vegetables, exercising, quitting smoking, or taking certain medicines, vitamins, minerals, or food supplements.
                
                
                    New ways to prevent endometrial cancer are being studied in clinical trials.
                    Clinical trials are taking place in many parts of the country. Information about clinical trials can be found in the Clinical Trials section of the NCI website. Check NCI's list of cancer clinical trials for endometrial cancer prevention trials that are now accepting patients.
Question: what research (or clinical trials) is being done for Colorectal Cancer ?

Answer: Cancer prevention clinical trials are used to study ways to prevent cancer.
                    Cancer prevention clinical trials are used to study ways to lower the risk of developing certain types of cancer. Some cancer prevention trials are conducted with healthy people who have not had cancer but who have an increased risk for cancer. Other prevention trials are conducted with people who have had cancer and are trying to prevent another cancer of the same type or to lower their chance of developing a new type of cancer. Other trials are done with healthy volunteers who are not known to have any risk factors for cancer.     The purpose of some cancer prevention clinical trials is to find out whether actions people take can prevent cancer. These may include exercising more or quitting smoking or taking certain medicines, vitamins, minerals, or food supplements.
                
                
                    New ways to prevent colorectal cancer are being studied in clinical trials.
                    Clinical trials are taking place in many parts of the country. Information about clinical trials can be found in the Clinical Trials section of the NCI website. Check NCI's list of cancer clinical trials for colon cancer prevention trials or rectal cancer prevention trials that are now accepting patients.
Question: What is (are) Gallstones ?

Answer: Your gallbladder is a pear-shaped organ under your liver. It stores bile, a fluid made by your liver to digest fat. As your stomach and intestines digest food, your gallbladder releases bile through a tube called the common bile duct. The duct connects your gallbladder and liver to your small intestine.    Your gallbladder is most likely to give you trouble if something blocks the flow of bile through the bile ducts. That is usually a gallstone. Gallstones form when substances in bile harden. Gallstone attacks usually happen after you eat. Signs of a gallstone attack may include nausea, vomiting, or pain in the abdomen, back, or just under the right arm.    Gallstones are most common among older adults, women, overweight people, Native Americans and Mexican Americans.    Gallstones are often found during imaging tests for other health conditions. If you do not have symptoms, you usually do not need treatment. The most common treatment is removal of the gallbladder. Fortunately, you can live without a gallbladder. Bile has other ways to reach your small intestine.    NIH: National Institute of Diabetes and Digestive and Kidney Diseases