Druvith/medqa1 huggingface dataset:
Question:  What are the treatments for Repetitive Motion Disorders ?
Answer: Treatment for RMDs usually includes reducing or stopping the motions that cause symptoms. Options include taking breaks to give the affected area time to rest, and adopting stretching and relaxation exercises. Applying ice to the affected area and using medications such as pain relievers, cortisone, and anti-inflammatory drugs can reduce pain and swelling. Splints may be able to relieve pressure on the muscles and nerves. Physical therapy may relieve the soreness and pain in the muscles and joints. In rare cases, surgery may be required to relieve symptoms and prevent permanent damage. Some employers have developed ergonomic programs to help workers adjust their pace of work and arrange office equipment to minimize problems.
Question:  What is the outlook for Repetitive Motion Disorders ?
Answer: Most individuals with RMDs recover completely and can avoid re-injury by changing the way they perform repetitive movements, the frequency with which they perform them, and the amount of time they rest between movements. Without treatment, RMDs may result in permanent injury and complete loss of function in the affected area.
Question:  what research (or clinical trials) is being done for Repetitive Motion Disorders ?
Answer: Much of the on-going research on RMDs is aimed at prevention and rehabilitation. The National Institute of Arthritis and Musculoskeletal and Skin Diseases (NIAMS) funds research on RMDs.
Question:  What is (are) Klippel Feil Syndrome ?
Answer: Klippel-Feil Syndrome is a rare disorder characterized by the congenital fusion of two or more cervical (neck) vertebrae. It is caused by a failure in the normal segmentation or division of the cervical vertebrae during the early weeks of fetal development. The most common signs of the disorder are short neck, low hairline at the back of the head, and restricted mobility of the upper spine. The fused vertebrae can cause nerve damage and pain in the head, neck, or back. Associated abnormalities may include scoliosis (curvature of the spine), spina bifida (a birth defect of the spine), cleft palate, respiratory problems, and heart malformations. Other features may include joint pain; anomalies of the head and face, skeleton, sex organs, muscles, brain and spinal cord, arms, legs, and fingers; and difficulties hearing. Most cases are sporadic (happen on their own) but mutations in the GDF6 (growth differentiation factor 6) or GDF3 (growth differentiation factor 3) genes can cause the disorder. These genes make proteins that are involved in bone development and segmentation of the vertebrae.
Question:  What are the treatments for Klippel Feil Syndrome ?
Answer: Treatment for Klippel-Feil Syndrome is symptomatic and may include surgery to relieve cervical or craniocervical instability and constriction of the spinal cord, and to correct scoliosis. Physical therapy may also be useful.
Question:  What is the outlook for Klippel Feil Syndrome ?
Answer: The prognosis for most individuals with Klippel-Feil Syndrome is good if the disorder is treated early and appropriately. Activities that can injure the neck should be avoided.
Question:  what research (or clinical trials) is being done for Klippel Feil Syndrome ?
Answer: The mission of the National Institute of Neurological Disorders and Stroke (NINDS) is to seek fundamental knowledge abuot the brain and nervous system, and to use that knowledge to reduce the burden of neurological disease. Research supported by the NINDS includes studies to understand how the brain and nervous system normally develop and function and how they are affected by disease and trauma. These studies contribute to a greater understanding of birth defects such as Klippel-Feil Syndrome and open promising new avenues for treatment.
Question:  What is (are) Carpal Tunnel Syndrome ?
Answer: Carpal tunnel syndrome (CTS) occurs when the median nerve, which runs from the forearm into the palm of the hand, becomes pressed or squeezed at the wrist. The carpal tunnel is a narrow, rigid passageway of ligament and bones at the base of the hand that houses the median nerve and the tendons that bend the fingers. The median nerve provides feeling to the palm side of the thumb and to most of the fingers. Symptoms usually start gradually, with numbness, tingling, weakness, and sometimes pain in the hand and wrist. People might have difficulty with tasks such as driving or reading a book. Decreased hand strength may make it difficult to grasp small objects or perform other manual tasks. In some cases no direct cause of the syndrome can be identified. Contributing factors include trauma or injury to the wrist that causes swelling, thyroid disease, rheumatoid arthritis, and fluid retention during pregnancy. Women are three times more likely than men to develop carpal tunnel syndrome. The disorder usually occurs only in adults.
Question:  What are the treatments for Carpal Tunnel Syndrome ?
Answer: Initial treatment generally involves immobilizing the wrist in a splint, nonsteroidal anti-inflammatory drugs to temporarily reduce swelling, and injections of corticosteroid drugs (such as prednisone). For more severe cases, surgery may be recommended.
Question:  What is the outlook for Carpal Tunnel Syndrome ?
Answer: In general, carpal tunnel syndrome responds well to treatment, but less than half of individuals report their hand(s) feeling completely normal following surgery. Some residual numbness or weakness is common. At work, people can perform stretching exercises, take frequent rest breaks, wear splints to keep wrists straight, and use correct posture and wrist position to help prevent or worsen symptoms. Wearing fingerless gloves can help keep hands warm and flexible.
Question:  what research (or clinical trials) is being done for Carpal Tunnel Syndrome ?
Answer: The mission of the National Institute of Neurological Disorders and Stroke (NINDS) is to conduct fundamental research on the brain and nervous system, and to use that knowledge to reduce the burden of neurological disease. NINDS-funded scientists are studying the factors that lead to long-lasting nerve pain disorders, and how the affected nerves are related to symptoms of numbness, loss of function, and pain. Researchers also are examining biomechanical stresses that contribute to the nerve damage responsible for symptoms of carpal tunnel syndrome in order to better understand, treat, and prevent it.
Question:  What is (are) Opsoclonus Myoclonus ?
Answer: Opsoclonus myoclonus is a rare neurological disorder characterized by an unsteady, trembling gait, myoclonus (brief, shock-like muscle spasms), and opsoclonus (irregular, rapid eye movements). Other symptoms may include difficulty speaking, poorly articulated speech, or an inability to speak. A decrease in muscle tone, lethargy, irritability, and malaise (a vague feeling of bodily discomfort) may also be present. Opsoclonus myoclonus may occur in association with tumors or viral infections. It is often seen in children with tumors.
Question:  What are the treatments for Opsoclonus Myoclonus ?
Answer: Treatment for opsoclonus myoclonus may include corticosteroids or ACTH (adrenocorticotropic hormone). In cases where there is a tumor present, treatment such as chemotherapy, surgery, or radiation may be required.
Question:  What is the outlook for Opsoclonus Myoclonus ?
Answer: The prognosis for opsoclonus myoclonus varies depending on the symptoms and the presence and treatment of tumors. With treatment of the underlying cause of the disorder, there may be an improvement of symptoms. The symptoms sometimes recur without warning. Generally the disorder is not fatal.
Question:  what research (or clinical trials) is being done for Opsoclonus Myoclonus ?
Answer: The NINDS supports and conducts research on movement disorders such as opsoclonus myoclonus. These studies are aimed at increasing knowledge about these disorders and finding ways to prevent, treat, and cure them.
Question:  What is (are) Dysautonomia ?
Answer: Dysautonomia refers to a disorder of autonomic nervous system (ANS) function that generally involves failure of the sympathetic or parasympathetic components of the ANS, but dysautonomia involving excessive or overactive ANS actions also can occur. Dysautonomia can be local, as in reflex sympathetic dystrophy, or generalized, as in pure autonomic failure. It can be acute and reversible, as in Guillain-Barre syndrome, or chronic and progressive. Several common conditions such as diabetes and alcoholism can include dysautonomia. Dysautonomia also can occur as a primary condition or in association with degenerative neurological diseases such as Parkinson's disease. Other diseases with generalized, primary dysautonomia include multiple system atrophy and familial dysautonomia. Hallmarks of generalized dysautonomia due to sympathetic failure are impotence (in men) and a fall in blood pressure during standing (orthostatic hypotension). Excessive sympathetic activity can present as hypertension or a rapid pulse rate.
Question:  What are the treatments for Dysautonomia ?
Answer: There is usually no cure for dysautonomia. Secondary forms may improve with treatment of the underlying disease. In many cases treatment of primary dysautonomia is symptomatic and supportive. Measures to combat orthostatic hypotension include elevation of the head of the bed, water bolus (rapid infusion of water given intravenously), a high-salt diet, and drugs such as fludrocortisone and midodrine.
Question:  What is the outlook for Dysautonomia ?
Answer: The outlook for individuals with dysautonomia depends on the particular diagnostic category. People with chronic, progressive, generalized dysautonomia in the setting of central nervous system degeneration have a generally poor long-term prognosis. Death can occur from pneumonia, acute respiratory failure, or sudden cardiopulmonary arrest.
Question:  what research (or clinical trials) is being done for Dysautonomia ?
Answer: The NINDS supports and conducts research on dysautonomia. This research aims to discover ways to diagnose, treat, and, ultimately, prevent these disorders.
Question:  What is (are) Metachromatic Leukodystrophy ?
Answer: Metachromatic leukodystrophy (MLD) is one of a group of genetic disorders called the leukodystrophies, which are characterized by the toxic buildup of lipids (fatty materials such as oils and waxes) and other storage materials in cells in the white matter of the central nervous system and peripheral nerves. The buildup of storage materials impairs the growth or development of the myelin sheath, the fatty covering that acts as an insulator around nerve fibers. (Myelin, which lends its color to the white matter of the brain, is a complex substance made up of a mixture of fats and proteins.) MLD is one of several lipid storage diseases, which result in the harmful buildup of lipids in brain cells and other cells and tissues in the body. People with lipid storage diseases either do not produce enough of one of the enzymes needed to break down (metabolize) lipids or they produce enzymes that do not work properly. Some leukodystrophies are caused by genetic defects of enzymes that regulate the metabolism of fats needed in myelin synthesis. MLD, which affects males and females, is cause by a deficiency of the enzyme arylsulfatase A. MLD has three characteristic forms: late infantile, juvenile, and adult. Late infantile MLD typically begins between 12 and 20 months following birth. Infants appear normal at first but develop difficulty walking after the first year of life and eventually lose the ability to walk. Other symptoms include muscle wasting and weakness,developmental delays, progressive loss of vision leading to blindness, impaired swallowing, and dementia before age 2. Most children with this form of MLD die by age 5. Symptoms of the juvenile form of MLD (which begins between 3-10 years of age) include impaired school performance, mental deterioration, an inability to control movements, seizures, and dementia. Symptoms continue to get worse, and death eventually occurs 10 to 20 years following disease onset.. The adult form commonly begins after age 16, with symptoms that include psychiatric disturbances, seizures, tremor, impaired concentration, depression, and dementia. Death generally occurs within 6 to 14 years after onset of symptoms.
Question:  What are the treatments for Metachromatic Leukodystrophy ?
Answer: There is no cure for MLD. Bone marrow transplantation may delay progression of the disease in some infantile-onset cases. Other treatment is symptomatic and supportive. Considerable progress has been made with regard to gene therapy in an animal model of MLD and in clinical trials.
Question:  What is the outlook for Metachromatic Leukodystrophy ?
Answer: The prognosis for MLD is poor. Most children within the infantile form die by age 5. Symptoms of the juvenile form progress with death occurring 10 to 20 years following onset. Those persons affected by the adult form typically die withing 6 to 14 years following onset of symptoms.
Question:  what research (or clinical trials) is being done for Metachromatic Leukodystrophy ?
Answer: The mission of the National Institute of Neurological Disorders and Stroke (NINDS) is to seek fundamental knowledge of the brain and nervous system and to use that knowledge to reduce the burden of neurological disease. The NINDS is a part of the National Institutes of Health (NIH), the leading supporter of biomedical research in the world. Research funded by the NINDS focuses on better understanding how neurological defects arise in lipid storage disorders and on the development of new treatments targeting disease mechanisms, including gene therapies, cell-based therapies, and pharmacological approaches. NINDS-funded preclinical research aims to study the effectiveness and safety of virus-based delivery of the normal ARSA gene to promote gene expression throughout the central nervous system and overcome the mutation-caused deficiency. If successful, the project could lead to trials in humans. Other research hopes to study the use of patient-specific induced pluripotent stem cells (cells that are capable of becoming other types of cells) in correcting the gene deficiency in metachromatic leukodystrophy.
Question:  What is (are) Atrial Fibrillation and Stroke ?
Answer: Atrial fibrillation (AF) describes the rapid, irregular beating of the left atrium (upper chamber) of the heart. These rapid contractions of the heart are weaker than normal contractions, resulting in slow flow of blood in the atrium. The blood pools and becomes sluggish and can result in the formation of blood clots. If a clot leaves the heart and travels to the brain, it can cause a stroke by blocking the flow of blood through cerebral arteries. Some people with AF have no symptoms, but others may experience a fluttering feeling in the area of the chest above the heart, chest pain, lightheadness or fainting, shortness of breath, and fatigue. AF is diagnosed by an electrocardiogram (ECG), a device that records the hearts electrical activity. Other tests are often performed to rule out contributing causes, such as high blood pressure, an overactive thyroid gland, heart failure, faulty heart valves, lung disease, and stimulant or alcohol abuse. Some people will have no identifiable cause for their AF.
Question:  What are the treatments for Atrial Fibrillation and Stroke ?
Answer: Within a few hours after onset of a stroke, treatment with drugs or devices that dissolve or break up the clot can restore blood flow to the brain and lead to a better recovery. To prevent strokes related to AF, doctors often prescribe medications to prevent formation of clots in the heart, which can travel to the brain and cause stroke. Immediately after a stroke, doctors may temporarily administer heparin by injection, while starting an oral medication for long-term protection from clots. The most commonly used drug has been warfarin. People taking warfarin must be closely monitored to make sure their blood is thin enough to prevent clots, but not so thin as to promote bleeding. Since some foods, vitamin supplements, and medications can affect warfarin action, keeping the blood just thin enough can be tricky. More recently, a number of new blood thinners, including dabigatran, rivaroxaban, and apixaban, have been shown to be as effective as warfarin in stroke prevention. These newer medications do not require regular blood test monitoring and may have less tendency to cause bleeding due to making the blood too thin. Some individuals with AF may have a lower risk of stroke and may be treated with aspirin, either alone or with another antiplatelet agency like clopidogrel. Other treatments for AF include medications such as beta blockers or calcium channel blockers to slow the heartbeat, and anti-arrhythmic drugs or electrical cardioversion (which delivers an electrical shock to the heart) to normalize the heartbeat.
Question:  What is the outlook for Atrial Fibrillation and Stroke ?
Answer: AF, which affects as many as 2.2 million Americans, increases an individuals risk of stroke by 4 to 6 times on average. The risk increases with age. In people over 80 years old, AF is the direct cause of 1 in 4 strokes. Treating individuals with warfarin or new blood thinners reduces the rate of stroke for those who have AF by approximately one-half to two- thirds. People with AF can have multiple strokes, including silent strokes (strokes that don't show physical symptoms but show up on a brain scan) that, over time, can cause dementia, so prevention is important.
Question:  what research (or clinical trials) is being done for Atrial Fibrillation and Stroke ?
Answer: The National Institute of Neurological Disorders and Stroke (NINDS) is the leading Federal agency directing and funding research relevant to AF and stroke prevention. The NINDS conducts basic and clinical research in its laboratories and clinics at the National Institutes of Health (NIH), and also supports additional research through grants to major research institutions across the country. Much of this research focuses on finding better ways to prevent, treat, and ultimately cure disorders such as AF that can increase the risk of stroke.
Question:  What is (are) Migraine ?
Answer: The pain of a migraine headache is often described as an intense pulsing or throbbing pain in one area of the head. However, it is much more; the International Headache Society diagnoses a migraine by its pain and number of attacks (at least 5, lasting 4-72 hours if untreated), and additional symptoms including nausea and/or vomiting, or sensitivity to both light and sound. Migraine is three times more common in women than in men and affects more than 10 percent of people worldwide. Roughly one-third of affected individuals can predict the onset of a migraine because it is preceded by an "aura," visual disturbances that appear as flashing lights, zig-zag lines or a temporary loss of vision. People with migraine tend to have recurring attacks triggered by a number of different factors, including stress, anxiety, hormonal changes, bright or flashing lights, lack of food or sleep, and dietary substances. Migraine in some women may relate to changes in hormones and hormonal levels during their menstrual cycle. For many years, scientists believed that migraines were linked to the dilation and constriction of blood vessels in the head. Investigators now believe that migraine has a genetic cause.
Question:  What are the treatments for Migraine ?
Answer: There is no absolute cure for migraine since its pathophysiology has yet to be fully understood. There are two ways to approach the treatment of migraine headache with drugs: prevent the attacks, or relieve the symptoms during the attacks. Prevention involves the use of medications and behavioral changes. Drugs originally developed for epilepsy, depression, or high blood pressure to prevent future attacks have been shown to be extremely effective in treating migraine. Botulinum toxin A has been shown to be effective in prevention of chronic migraine. Behaviorally, stress management strategies, such as exercise, relaxation techniques, biofeedback mechanisms, and other therapies designed to limit daily discomfort, may reduce the number and severity of migraine attacks. Making a log of personal triggers of migraine can also provide useful information for trigger-avoiding lifestyle changes, including dietary considerations, eating regularly scheduled meals with adequate hydration, stopping certain medications, and establishing a consistent sleep schedule. Hormone therapy may help some women whose migraines seem to be linked to their menstrual cycle. A weight loss program is recommended for obese individuals with migraine.
                
Relief of symptoms, or acute treatments, during attacks consists of sumatriptan, ergotamine drugs, and analgesics such as ibuprofen and aspirin. The sooner these treatments are administered, the more effective they are.
Question:  What is the outlook for Migraine ?
Answer: Responsive prevention and treatment of migraine is incredibly important. Evidence shows an increased sensitivity after each successive attack, eventually leading to chronic daily migraine in some individuals With proper combination of drugs for prevention and treatment of migraine attacks most individuals can overcome much of the discomfort from this debilitating disorder. Women whose migraine attacks occur in association with their menstrual cycle are likely to have fewer attacks and milder symptoms after menopause.
Question:  what research (or clinical trials) is being done for Migraine ?
Answer: Researchers believe that migraine is the result of fundamental neurological abnormalities caused by genetic mutations at work in the brain. New models are aiding scientists in studying the basic science involved in the biological cascade, genetic components and mechanisms of migraine. Understanding the causes of migraine as well as the events that effect them will give researchers the opportunity to develop and test drugs that could be more targeted to preventing or interrupting attacks entirely. Therapies currently being tested for their effectiveness in treating migraine include magnesium, coenzyme Q10, vitamin B12, riboflavin, fever-few, and butterbur. 
                
In 2010, a team of researchers found a common mutation in the gene TRESK which contains instructions for a certain potassium ion channel. Potassium channels are important for keeping a nerve cell at rest and mutations in them can lead to overactive cells that respond to much lower levels of pain. Large genetic analyses similar to the one used to identify TRESK will most likely lead to the identification of a number of other genes linked to migraine.