sarnsrun/medquadmini huggingface dataset:
Question:
What is (are) Lambert-Eaton Myasthenic Syndrome ?

Answer:
Lambert-Eaton myasthenic syndrome (LEMS) is a disorder of the neuromuscular junction-the site where nerve cells meet muscle cells and help activate the muscles. It is caused by a disruption of electrical impulses between these nerve and muscle cells. LEMS is an autoimmune condition; in such disorders the immune system, which normally protects the body from foreign organisms, mistakenly attacks the body's own tissues. The disruption of electrical impulses is associated with antibodies produced as a consequence of this autoimmunity. Symptoms include muscle weakness, a tingling sensation in the affected areas, fatigue, and dry mouth. LEMS is closely associated with cancer, in particular small cell lung cancer. More than half the individuals diagnosed with LEMS also develop small cell lung cancer. LEMS may appear up to 3 years before cancer is diagnosed.
Question:
What are the treatments for Lambert-Eaton Myasthenic Syndrome ?

Answer:
There is no cure for LEMS. Treatment is directed at decreasing the autoimmune response (through the use of steroids, plasmapheresis, or high-dose intravenous immunoglobulin) or improving the transmission of the disrupted electrical impulses by giving drugs such as di-amino pyridine or pyridostigmine bromide (Mestinon). For patients with small cell lung cancer, treatment of the cancer is the first priority.
Question:
What is the outlook for Lambert-Eaton Myasthenic Syndrome ?

Answer:
The prognosis for individuals with LEMS varies. Those with LEMS not associated with malignancy have a benign overall prognosis. Generally the presence of cancer determines the prognosis.
Question:
what research (or clinical trials) is being done for Lambert-Eaton Myasthenic Syndrome ?

Answer:
The NINDS supports research on neuromuscular disorders such as LEMS with the ultimate goal of finding ways to treat, prevent, and cure them.
Question:
What is (are) Cerebellar Hypoplasia ?

Answer:
Cerebellar hypoplasia is a neurological condition in which the cerebellum is smaller than usual or not completely developed. Cerebellar hypoplasia is a feature of a number of congenital (present at birth) malformation syndromes, such as Walker-Warburg syndrome (a form of muscular dystrophy. It is also associated with several inherited metabolic disorders, such as Williams syndrome, and some of the neurodegenerative disorders that begin in early childhood, such as ataxia telangiectasia. In an infant or young child, symptoms of a disorder that features cerebellar hypoplasia might include floppy muscle tone, developmental or speech delay, problems with walking and balance, seizures, intellectual disability, and involuntary side to side movements of the eyes. In an older child, symptoms might include headache, dizzy spells, clumsiness, and hearing impairment.
Question:
What are the treatments for Cerebellar Hypoplasia ?

Answer:
There is no standard course of treatment for cerebellar hypoplasia. Treatment depends upon the underlying disorder and the severity of symptoms. Generally, treatment is symptomatic and supportive.
Question:
What is the outlook for Cerebellar Hypoplasia ?

Answer:
The prognosis is dependent upon the underlying disorder. Some of the disorders that are associated with cerebellar hypoplasia are progressive, which means the condition will worsen over time, and will most likely have a poor prognosis. Other disorders that feature cerebellar hypoplasia are not progressive, such as those that are the result of abnormal brain formation during fetal development, and might have a better outcome.
Question:
what research (or clinical trials) is being done for Cerebellar Hypoplasia ?

Answer:
The National Institute of Neurological Disorders and Stroke (NINDS) supports research related to cerebellar hypoplasia and its associated disorders 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 that feature cerebellar hypoplasia.
Question:
What is (are) Cerebral Arteriosclerosis ?

Answer:
Cerebral arteriosclerosis is the result of thickening and hardening of the walls of the arteries in the brain. Symptoms of cerebral arteriosclerosis include headache, facial pain, and impaired vision.
                
Cerebral arteriosclerosis can cause serious health problems. If the walls of an artery are too thick, or a blood clot becomes caught in the narrow passage, blood flow to the brain can become blocked and cause an ischemic stroke. When the thickening and hardening is uneven, arterial walls can develop bulges (called aneurysms). If a bulge ruptures, bleeding in the brain can cause a hemorrhagic stroke. Both types of stroke can be fatal.
                
Cerebral arteriosclerosis is also related to a condition known as vascular dementia, in which small, symptom-free strokes cause cumulative damage and death to neurons (nerve cells) in the brain. Personality changes in the elderly, such as apathy, weeping, transient befuddlement, or irritability, might indicate that cerebral arteriosclerosis is present in the brain. Computer tomography (CT) and magnetic resonance imaging (MRI) of the brain can help reveal the presence of cerebral arteriosclerosis before ischemic strokes, hemorrhagic strokes, or vascular dementia develop.
Question:
What are the treatments for Cerebral Arteriosclerosis ?

Answer:
Treatment for cerebral arteriosclerosis can include medications or surgery. Physicians also may recommend treatments to help people control high blood pressure, quit cigarette smoking, and reduce cholesterol levels, all of which are risk factors for cerebral arteriosclerosis.
Question:
What is the outlook for Cerebral Arteriosclerosis ?

Answer:
Cerebral arteriosclerosis can lead to life threatening health events such as ischemic or hemorrhagic strokes. People who survive stroke may have long-term neurological and motor impairments.
Question:
what research (or clinical trials) is being done for Cerebral Arteriosclerosis ?

Answer:
The NINDS supports an extensive research program on stroke and conditions that can lead to stroke. Much of this research is aimed at finding ways to prevent and treat conditions such as cerebral arteriosclerosis.
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) Neuroacanthocytosis ?

Answer:
Neuroacanthocytosis refers to a group of genetic conditions that are characterized by movement disorders and acanthocytosis (abnormal, spiculated red blood cells). Four syndromes are classified as neuroacanthocytosis: Chorea-acanthocytosis, McLeod syndrome, Huntington's disease-like 2 (HDL2), and panthothenate kinase-associated neurodegeneration (PKAN). Acanthocytosis may not always be observed in HDL2 and PKAN. These disorders are caused by different genetic mutations, and the signs and symptoms vary, but usually include chorea (involuntary, dance-like movements), parkinsonism (slowness of movement), dystonia (abnormal body postures), and problems walking. There may also be muscle weakness, involuntary movements of the face and tongue, tongue/lip biting (which is mostly characteristic of Chorea-acanthocytosis), as well as difficulty with speech and eating, cognitive impairment, psychiatric symptoms, and seizures. Individuals with McLeod syndrome often have cardiac problems. Many features of these disorders are due to degeneration of the basal ganglia, a part of the brain that controls movement. Additional disorders that are also known have neurologic symptoms, acanthocytosis, and either lipoprotein disorders or systemic findings. The diagnosis of neuroacanthocytosis is typically based on the symptoms and clinical observation, a review of family history, and the evaluation of specific laboratory and imaging studies.
Question:
What are the treatments for Neuroacanthocytosis ?

Answer:
There are currently no treatments to prevent or slow the progression of neuroacanthocytosis and treatment is symptomatic and supportive. Medications that block dopamine, such as some of the antipsychotics, may decrease the involuntary movements. Botulinum toxin injections usually improve symptoms of dystonia. A feeding tube may be needed for individuals with feeding difficulties to maintain proper nutrition. Seizures may be treated with a variety of anticonvulsants, and antidepressants may also be appropriate for some individuals. Speech, occupational, and physical therapy may also be beneficial.
Question:
What is the outlook for Neuroacanthocytosis ?

Answer:
Neuroacanthocytosis is a progressive disease, and in some cases may be complicated by poor nutritional status, cardiac abnormalities, and pneumonia.
Question:
what research (or clinical trials) is being done for Neuroacanthocytosis ?

Answer:
The NINDS supports research on disorders such as neuroacanthocytosis, aimed at increasing scientific understanding of the disorders and finding ways to prevent and treat them. The genetic mutations responsible for some types of neuroacanthocytosis have recently been identified. Researchers are examining the role of the basal ganglia in neuroacanthocytosis and hope to correlate the specific genetic abnormalities with the clinical features of the disease. Other research is aimed at identifying possible causes of sudden death related to heart muscle abnormalities, which are observed in some individuals with neuroacanthocytosis.
Question:
What is (are) Arachnoiditis ?

Answer:
Arachnoiditis describes a pain disorder caused by the inflammation of the arachnoid, one of the membranes that surround and protect the nerves of the spinal cord. The arachnoid can become inflamed because of an irritation from chemicals, infection from bacteria or viruses, as the result of direct injury to the spine, chronic compression of spinal nerves, or complications from spinal surgery or other invasive spinal procedures. Inflammation can sometimes lead to the formation of scar tissue and adhesions, which cause the spinal nerves to stick together. If arachnoiditis begins to interfere with the function of one or more of these nerves, it can cause a number of symptoms, including numbness, tingling, and a characteristic stinging and burning pain in the lower back or legs. Some people with arachnoiditis will have debilitating muscle cramps, twitches, or spasms. It may also affect bladder, bowel, and sexual function. In severe cases, arachnoiditis may cause paralysis of the lower limbs.
Question:
What are the treatments for Arachnoiditis ?

Answer:
Arachnoiditis remains a difficult condition to treat, and long-term outcomes are unpredictable. Most treatments for arachnoiditis are focused on pain relief and the improvement of symptoms that impair daily function. A regimen of pain management, physiotheraphy, exercise, and psychotheraphy is often recommended. Surgical intervention is controversial since the outcomes are generally poor and provide only short-term relief.
Question:
What is the outlook for Arachnoiditis ?

Answer:
Arachnoiditis is adisorder that causes chronic pain and neurological deficits and does not improve significantly with treatment.Surgery may only provide temporary relief. The outlook for someone witharachnoiditis iscomplicated by the fact that the disorder has no predictable pattern or severity of symptoms.
Question:
what research (or clinical trials) is being done for Arachnoiditis ?

Answer:
Within the NINDS research programs, arachnoiditis is addressed primarily through studies associated with pain research. NINDS vigorously pursues a research program seeking new treatments for pain and nerve damage with the ultimate goal of reversing debilitating conditions such as arachnoiditis.
Question:
What is (are) Pompe Disease ?

Answer:
Pompe disease is a rare (estimated at 1 in every 40,000 births), inherited and often fatal disorder that disables the heart and skeletal muscles. It is caused by mutations in a gene that makes an enzyme called acid alpha-glucosidase (GAA). Normally, the body uses GAA to break down glycogen, a stored form of sugar used for energy. The enzyme performs its function in intracellular compartments called lysosomes. Lysosomes are known to function as cellular clearinghouses; they ingest multiple substances including glycogen, which is converted by the GAA into glucose, a sugar that fuels muscles. In Pompe disease, mutations in the GAA gene reduce or completely eliminate this essential enzyme. Excessive amounts of lysosomal glycogen accumulate everywhere in the body, but the cells of the heart and skeletal muscles are the most seriously affected. Researchers have identified up to 300 different mutations in the GAA gene that cause the symptoms of Pompe disease, which can vary widely in terms of age of onset and severity. The severity of the disease and the age of onset are related to the degree of enzyme deficiency.
                
Early onset (or the infantile form) is the result of complete or near complete deficiency of GAA. Symptoms begin in the first months of life, with feeding problems, poor weight gain, muscle weakness, floppiness, and head lag. Respiratory difficulties are often complicated by lung infections. The heart is grossly enlarged. Many infants with Pompe disease also have enlarged tongues. Most babies die from cardiac or respiratory complications before their first birthday.
                
Late onset (or juvenile/adult) Pompe disease is the result of a partial deficiency of GAA. The onset can be as early as the first decade of childhood or as late as the sixth decade of adulthood. The primary symptom is muscle weakness progressing to respiratory weakness and death from respiratory failure after a course lasting several years. The heart is usually not involved. A diagnosis of Pompe disease can be confirmed by screening for the common genetic mutations or measuring the level of GAA enzyme activity in a blood sample. Once Pompe disease is diagnosed, testing of all family members and a consultation with a professional geneticist are recommended. Carriers are most reliably identified via genetic mutation analysis.
Question:
What are the treatments for Pompe Disease ?

Answer:
Individuals with Pompe disease are best treated by a team of specialists (such as cardiologist, neurologist, and respiratory therapist) knowledgeable about the disease, who can offer supportive and symptomatic care. The discovery of the GAA gene has led to rapid progress in understanding the biological mechanisms and properties of the GAA enzyme. As a result, an enzyme replacement therapy has been developed that has shown, in clinical trials with infantile-onset patients, to decrease heart size, maintain normal heart function, improve muscle function, tone, and strength, and reduce glycogen accumulation. A drug called alglucosidase alfa (Myozyme), has received FDA approval for the treatment of infants and children with Pompe disease. Another algluosidase alfa drug, Lumizyme, has been approved for late-onset (non-infantile) Pompe disease.
Question:
What is the outlook for Pompe Disease ?

Answer:
Without enzyme replacement therapy, the hearts of babies with infantile onset Pompe disease progressively thicken and enlarge. These babies die before the age of one year from either cardiorespiratory failure or respiratory infection. For individuals with late onset Pompe disease, the prognosis is dependent upon the age of onset. In general, the later the age of onset, the slower the progression of the disease. Ultimately, the prognosis is dependent upon the extent of respiratory muscle involvement.
Question:
what research (or clinical trials) is being done for Pompe Disease ?

Answer:
The National Institute of Neurological Disorders and Stroke (NINDS) supports Pompe research through grants to major research institutions across the country. Research related to Pompe disease is conducted in one of the laboratories of the National Institute of Arthritis and Musculoskeletal and Skin Diseases (NIAMS) at the National Institutes of Health. Much of Pompe-related research focuses on finding better ways to prevent, treat, and ultimately cure this disorder.
Question:
What is (are) Machado-Joseph Disease ?

Answer:
Machado-Joseph disease (MJD), which is also called spinocerebellar ataxia type 3, is a rare hereditary ataxia (ataxia is a medical term meaning lack of muscle control). The disease is characterized by slowly progressive clumsiness and weakness in the arms and legs, spasticity, a staggering lurching gait easily mistaken for drunkenness, difficulty with speech and swallowing, involuntary eye movements, double vision, and frequent urination. Some individuals also have dystonia (sustained muscle contractions that cause twisting of the body and limbs, repetitive movements, abnormal postures, and rigidity) or symptoms similar to those of Parkinson's disease. Others have twitching of the face or tongue, or peculiar bulging eyes. Almost all individuals with MJD experience vision problems, including double vision or blurred vision, loss of the ability to distinguish color and/or contrast, and inability to control eye movements.
Question:
What are the treatments for Machado-Joseph Disease ?

Answer:
MJD is incurable, but some symptoms of the disease can be treated. For those individuals who show parkinsonian features, levodopa therapy can help for many years. Treatment with antispasmodic drugs, such as baclofen, can help reduce spasticity. Botulinum toxin can also treat severe spasticity as well as some symptoms of dystonia. Speech problems and trouble swallowing can be treated with medication and speech therapy. Physiotherapy can help patients cope with disability associated with gait problems. Physical aids, such as walkers and wheelchairs, can assist with everyday activities.
Question:
What is the outlook for Machado-Joseph Disease ?

Answer:
The severity of the disease is related to the age of onset, with earlier onset associated with more severe forms of the disease. Symptoms can begin any time between early adolescence and about 70 years of age. MJD is a progressive disease, meaning that symptoms get worse with time. Life expectancy ranges from the mid-thirties for those with severe forms of MJD to a normal life expectancy for those with mild forms. The cause of death for those who die early is often aspiration pneumonia.
Question:
what research (or clinical trials) is being done for Machado-Joseph Disease ?

Answer:
The National Institute of Neurological Disorders and Stroke (NINDS) conducts MJD research in its laboratories at the National Institutes of Health (NIH) and also supports MJD research through grants to major medical institutions across the country. Ongoing research includes studies to better understand the genetic, molecular, and cellular mechanisms that underlie inherited neurodegenerative diseases such as MJD. Other research areas include the development of novel therapies to treat the symptoms of MJD, efforts to identify diagnostic markers and to improve current diagnostic procedures for the disease, and population studies to identify affected families.
Question:
What is (are) Colpocephaly ?

Answer:
Colpocephaly is a congenital brain abnormality in which the occipital horns - the posterior or rear portion of the lateral ventricles (cavities) of the brain -- are larger than normal because white matter in the posterior cerebrum has failed to develop or thicken. Colpocephaly, one of a group of structural brain disorders known as cephalic disorders, is characterized by microcephaly (an abnormally small head) and impaired intellect. Other features may include movement abnormalities, muscle spasms, and seizures. Although the cause of colpocephaly is unknown, researchers believe that the disorder results from some kind of disturbance in the fetal environment that occurs between the second and sixth months of pregnancy. Colpocephaly may be diagnosed late in pregnancy, although it is often misdiagnosed as hydrocephalus (excessive accumulation of cerebrospinal fluid in the brain). It may be more accurately diagnosed after birth when signs of impaired intellect, microcephaly, and seizures are present.