Shekswess/llama3_medquad_instruct_dataset huggingface dataset:
Question: what research (or clinical trials) is being done for Acid Lipase Disease ?
Answer: The mission of the National Institute of Neurological Disorders and Stroke (NINDS) is to seek fundamental knowledge abut the brain and nervous system, and to use that knowledge to reduce the burden of neurological diseaset. The NINDS conducts and supports research to understand lipid storage diseases such as acid lipase deficiency. Additional research studies hope to identify biomarkers (signs that may indicate risk of a disease and improve diagnosis) for thee lipid storage diseases that will speed the development of novel therapeutics for these disorders. Other investigators hope to establish an international disease registry designed to collect longitudinal data that would be used to improve the care and treatment of individuals with lysosomal acid lipase deficiency.
                
The National Library of Medicine (NLM), a part of the National Institutes of Health (NIH) within the U.S. Department of Health and Human Services, offers free searches of biomedical literature through an Internet service called PubMed. To search, go to: http://www.ncbi.nlm.nih.gov/PubMed . The NLM also offers extensive health information from NIH and other trusted sources. To research your condition, go to: http://www.medlineplus.gov .
Question: What is (are) Canavan Disease ?
Answer: Canavan disease is a gene-linked neurological disorder in which the brain degenerates into spongy tissue riddled with microscopic fluid-filled spaces. Canavan disease has been classified as one of a group of genetic disorders known as the leukodystrophies. Recent research has indicated that the cells in the brain responsible for making myelin sheaths, known as oligodendrocytes, cannot properly complete this critical developmental task. Myelin sheaths are the fatty covering that act as insulators around nerve fibers in the brain, as well as providing nutritional support for nerve cells. In Canavan disease, many oligodendrocytes do not mature and instead die, leaving nerve cell projections known as axons vulnerable and unable to properly function. Canavan disease is caused by mutation in the gene for an enzyme called aspartoacylase, which acts to break down the concentrated brain chemical known as N-acetyl-aspartate.
                
Symptoms of Canavan disease usually appear in the first 3 to 6 months of life and progress rapidly. Symptoms include lack of motor development, feeding difficulties, abnormal muscle tone (weakness or stiffness), and an abnormally large, poorly controlled head. Paralysis, blindness, or hearing loss may also occur. Children are characteristically quiet and apathetic. Although Canavan disease may occur in any ethnic group, it is more frequent among Ashkenazi Jews from eastern Poland, Lithuania, and western Russia, and among Saudi Arabians. Canavan disease can be identified by a simple prenatal blood test that screens for the missing enzyme or for mutations in the gene that controls aspartoacylase. Both parents must be carriers of the defective gene in order to have an affected child. When both parents are found to carry the Canavan gene mutation, there is a one in four (25 percent) chance with each pregnancy that the child will be affected with Canavan disease.
Question: What is (are) Neurofibromatosis ?
Answer: The neurofibromatoses are genetic disorders that cause tumors to grow in the nervous system. The tumors begin in the supporting cells that make up the nerves and the myelin sheath--the thin membrane that envelops and protects the nerves. These disorders cause tumors to grow on nerves and, less frequently, in the brain and spinal cord, and produce other abnormalities such as skin changes and bone deformities. Although many affected persons inherit the disorder, between 30 and 50 percent of new cases arise spontaneously through mutation (change) in an individual's genes. Once this change has taken place, the mutant gene can be passed on to succeeding generations. There are three forms of neurofibromatosis (NF):
                
- NF1 is the more common type of the disorder. Symptoms of NF1, which may be evident at birth and nearly always by the time the child is 10 years old, may include light brown spots on the skin ("cafe-au-lait" spots), two or more growths on the iris of the eye, a tumor on the optic nerve, a larger than normal head circumference, and abnormal development of the spine, a skull bone, or the tibia.   - NF2 is less common and is characterized by slow-growing tumors on the vestibular branch of the right and left eighth cranial nerves, which are called vestibular schwannomas or acoustic neuromas.. The tumors press on and damage neighboring nerves and reduce hearing.  - The distinctive feature of schwannomatosis is the development of multiple schwannomas (tumors made up of certain cells) everywhere in the body except on the vestibular branch of the 8th cranial nerve. The dominant symptom is pain, which develops as a schwannoma enlarges or compresses nerves or adjacent tissue. Some people may develop numbness, tingling, or weakness in the fingers and toes.
Question: what research (or clinical trials) is being done for Menkes Disease ?
Answer: Recent research sponsored by the NINDS developed a blood test that could be given to newborns at risk for Menkes disease based on a positive family history for the disorder or other indications. The test measures 4 different chemicals in the blood and, depending upon their levels, can accurately diagnose the presence of Menkes disease before symptoms appear. Study results showed higher survival rates for children given the earliest copper injection treatment and improved, if not normal, 2. Additional research is being performed by the Eunice Kennedy Shriver National Institute of Child Health and Human Development, in collaboration with the NINDS, that applies gene therapy approaches to Menkes disease.3
                

                
1. Kaler, SG. The neurology of STPAT copper transporter disease: emerging concepts and future trends. Nature Reviews Neurology, 2001:7:15-19..
                
2. Kaler SG, et al.Neonatal Diagnosis and Treatment of Menkes Disease. N Engl J Med 2008;358:605-14.
                
3. Donsante, A. et. al. ATPTA gene addition to the choroid plexus results in long-term rescue of the lethal copper transport defect in a Menkes disease mouse model. Molecular Therapy (in press as of August 2011).
Question: what research (or clinical trials) is being done for Traumatic Brain Injury ?
Answer: The National Institute of Neurological Disorders and Stroke (NINDS) supports TBI research through grants to major medical institutions across the country and conducts TBI research in its intramural laboratories and Clinical Center at the National Institutes of Health (NIH) in Bethesda,Maryland. The Center for Neuroscience and Regenerative Medicine (CNRM) is a TBI research collaboration between intramural NIH and the Uniformed Services University for the Health Sciences (USUHS). NINDS-funded research involves studies in the laboratory and in clinical settings to better understand TBI and the biological mechanisms underlying damage to the brain. This research will allow scientists to develop strategies and interventions to limit the primary and secondary brain damage that occurs within days of a head trauma, and to devise therapies to treat brain injury and improve long-term recovery of function.
                
More information about Traumatic Brain Injury (TBI) Research is available at: http://www.ninds.nih.gov/research/tbi/index.htm
                
More information about CNRM clinical studies is available at: http://cnrmstudies.org/
Question: What is (are) Pelizaeus-Merzbacher Disease ?
Answer: Pelizaeus-Merzbacher disease (PMD) is a rare, progressive, degenerative central nervous system disorder in which coordination, motor abilities, and intellectual function deteriorate. The disease is one of a group of gene-linked disorders known as the leukodystrophies, which affect growth of the myelin sheath -- the fatty covering that wraps around and protects nerve fibers in the brain. The disease is caused by a mutation in the gene that controls the production of a myelin protein called proteolipid protein-1 (PLP1). PMD is inherited as an X-linked recessive trait; the affected individuals are male and the mothers are carriers of the PLP1 mutation. Severity and onset of the disease ranges widely, depending on the type of PLP1 mutation. PMD is one of a spectrum of diseases associated with PLP1, which also includes Spastic Paraplegia Type 2 (SPG2). The PLP1-related disorders span a continuum of neurologic symptoms that range from severe central nervous system involvement (PMD) to progressive weakness and stiffness of the legs (SPG2). There are four general classifications within this spectrum of diseases. In order of severity, they are:
                
- Connatal PMD, which is the most severe type and involves delayed mental and physical development and severe neurological symptoms; - Classic PMD, in which the early symptoms include muscle weakness, involuntary movements of the eyes (nystagmus), and delays in motor development within the first year of life; - Complicated SPG2, which features motor development issues and brain involvement, and, - Pure SPG2, which includes cases of PMD that do not have neurologic complications.
                
Noticeable changes in the extent of myelination can be detected by MRI analyses of the brain. Additional symptoms of PMD may include slow growth, tremor, failure to develop normal control of head movement, and deteriorating speech and cognitive function.
Question: What is the outlook for Epilepsy ?
Answer: While epilepsy cannot be cured, for some people the seizures can be controlled with medication, diet, devices, and/or surgery. Most seizures do not cause brain damage, but ongoing uncontrolled seizures may cause brain damage. It is not uncommon for people with epilepsy, especially children, to develop behavioral and emotional problems in conjunction with seizures. Issues may also arise as a result of the stigma attached to having epilepsy, which can led to embarrassment and frustration or bullying, teasing, or avoidance in school and other social settings. For many people with epilepsy, the risk of seizures restricts their independence (some states refuse drivers licenses to people with epilepsy) and recreational activities.
                
Epilepsy can be a life-threatening condition. Some people with epilepsy are at special risk for abnormally prolonged seizures or sudden unexplained death in epilepsy.
Question: what research (or clinical trials) is being done for Epilepsy ?
Answer: Scientists are studying the underlying causes of the epilepsies in children, adults, and the elderly, as well as seizures that occur following brain trauma, stroke, and brain tumors. Ongoing research is focused on developing new model systems that can be used to more quickly screen potential new treatments for the epilepsies. The identification of genes or other genetic information that may influence or cause the epilepsies may allow doctors to prevent the disorders or to predict which treatments will be most beneficial to individuals with specific types of epilepsy. Scientists also continue to study how neurotransmitters interact with brain cells to control nerve firing and how non-neuronal cells in the brain contribute to seizures. Researchers funded by the National Institutes of Health have developed a flexible brain implant that could one day be used to treat seizures. Scientists are continually improving MRI and other brain scans that may assist in diagnosing the epilepsies and identify the source, or focus, of the seizures in the brain. Other areas of study include prevention of seizures and the role of inflammation in epilepsy. Patients may enter trials of experimental drugs and surgical interventions.
                
More about epilepsy research
Question: What is (are) Generalized Gangliosidoses ?
Answer: The gangliosidoses are a group of inherited metabolic diseases caused by a deficiency of the different proteins needed to break down fatty substances called lipids. Excess buildup of these fatty materials (oils, waxes, steroids, and other compounds) can cause permanent damage in the cells and tissues in the brain and nervous systems, particularly in nerve cells. There are two distinct groups of the gangliosidoses, which affect males and females equally.
                
The GM1 gangliosidoses are caused by a deficiency of the enzyme beta-galactosidase. Signs of early infantile GM1 gangliodisosis (the most severe subtype, with onset shortly after birth) may include neurodegeneration, seizures, liver and spleen enlargement, coarsening of facial features, skeletal irregularities, joint stiffness, distended abdomen, muscle weakness, exaggerated startle response, and problems with gait. About half of affected persons develop cherry-red spots in the eye. Children may be deaf and blind by age 1.Onset of late infantile GM1 gangliosidosisis typically between ages 1 and 3 years. Signs include an inability to control movement, seizures, dementia, and difficulties with speech. Adult GM1 gangliosidosis strikes between ages 3 and 30, with symptoms that include the wasting away of muscles, cloudiness in the corneas, and dystonia (sustained moscle contractions that case twisting and repetitive movements or abnormal postures). Non-cancerous skin blemishes may develop on the lower part of the trunk of the body. Adult GM1 is usually less severe and progresses more slowly than other forms of the disorder.
                
The GM2 gangliosidoses include Tay-Sachs disease and its more severe form, called Sandhoff disease, both of whichresult from a deficiency of the enzyme beta-hexosaminidase. Symptoms begin by age 6 months and include progressive mental deterioration, cherry-red spots in the retina, marked startle reflex, and seizures. Children with Tay-Sachs may also have dementia, progressive loss of hearing, some paralysis, and difficulty in swallowing that may require a feeding tube. A rarer form of the disorder, which occurs in individuals in their twenties and early thirties, is characterized by an unsteady gait and progressive neurological deterioration. Additional signs of Sandhoff disease include weakness in nerve signaling that causes muscles to contract, early blindness, spasticity, muscle contractions, an abnormally enlarged head, and an enlarged liver and spleen.
Question: What is (are) Neurological Consequences of Cytomegalovirus Infection ?
Answer: Cytomegalovirus (CMV) is a virus found throughout the world that infects between 50 to 80 percent of all adults in the United States by the age of 40. CMV is in the same family of viruses that causes cold sores (herpes simplex virus), infectious mononucleosis (Epstein-Barr virus), and chickenpox/shingles (varicella zoster virus).  Most people who acquire CVM as children or adults display no signs of illness or have mild symptoms such as fever, fatigue, or tender lymph nodes. People with a compromised immune system may have more severe forms of infection involving the nervous system.
                
A hallmark of CMV infection is that the virus cycles through periods of dormancy and active infection during the life of the individual Infected persons of any age periodically shed the virus in their body fluids, such as saliva, urine, blood, tears, semen, or breast milk. CMV is most commonly transmitted when infected body fluids come in contact with the mucous membranes of an uninfected person, but the virus can also pass from mother to fetus during pregnancy.
Question: What are the treatments for Neurological Consequences of Cytomegalovirus Infection ?
Answer: Since the virus remains in the person for life, there is no treatment to eliminate CMV infection. However, minimizing contact with infected body fluids can decrease the risk of viral transmission between individuals or from mother to fetus. Contact can be minimized by using gloves or other protective barriers when handling body fluids or contaminated materials (such as diapers or tissues), avoiding shared dishes, utensils, and other personal items, and consistent and thorough hand-washing. 
                
Antiviral drugs (ganciclovir and others)can be used to prevent or control the symptoms of CMV infection in immunocompromised individuals or some infants with congenital infection. CMV immunoglobulin may also be used in some patients. Vaccines are in the development and human clinical trial stages, which shows that vaccines may help prevent initial CMV infection or decrease the severity of symptoms.
Question: What is the outlook for Neurological Consequences of Cytomegalovirus Infection ?
Answer: For most people CMV infection is not a problem. However, two groups of people are at high risk of neurological or other severe symptoms that may lead to long-term effects:
                
- Unborn infants whose mothers have CMV infection. CMVis the most common congenital infection in the U.S. Most infants will have no permanent health consequences, but a small number will have at birth or will develop long-term neurological conditions, such as hearing loss, visual impairment, seizures, or disabilities f mental or physical function. The highest risk of these severe effects on the fetus is for women who acquire CMV infection for the first time during pregnancy. The risk is much lower for women who have had CMV infection in the past before pregnancy. - Immunocompromised individuals. CMV infection may be severe in solid organ or blood cell transplant recipients, people with untreated or end-stage HIV-AIDS, or others with altered immune function. Infection may affect the brain (encephalitis), spinal cord (myelitis), eye (retinitis), or other organs such as the lungs (pneumonia) or intestinal gract (gastritis, enteritis, or colitis). In addition, transplant recipients may develop organ rejection or graft-versus-host disease associated with CMV infection.
Question: What is (are) Neurological Sequelae Of Lupus ?
Answer: Lupus (also called systemic lupus erythematosus) is a disorder of the immune system. Normally, the immune system protects the body against invading infections and cancers. In lupus, the immune system is over-active and produces increased amounts of abnormal antibodies that attack the body's tissues and organs. Lupus can affect many parts of the body, including the joints, skin, kidneys, lungs, heart, nervous system, and blood vessels. The signs and symptoms of lupus differ from person to person; the disease can range from mild to life threatening.
                
Initial symptoms of lupus may begin with a fever, vascular headaches, epilepsy, or psychoses. A striking feature of lupus is a butterfly shaped rash over the cheeks. In addition to headache, lupus can cause other neurological disorders, such as mild cognitive dysfunction, organic brain syndrome, peripheral neuropathies, sensory neuropathy, psychological problems (including personality changes, paranoia, mania, and schizophrenia), seizures, transverse myelitis, and paralysis and stroke.
Question: What is (are) Normal Pressure Hydrocephalus ?
Answer: Normal pressure hydrocephalus (NPH) is an abnormal buildup of cerebrospinal fluid (CSF) in the brain's ventricles, or cavities. It occurs if the normal flow of CSF throughout the brain and spinal cord is blocked in some way. This causes the ventricles to enlarge, putting pressure on the brain. Normal pressure hydrocephalus can occur in people of any age, but it is most common in the elderly. It may result from a subarachnoid hemorrhage, head trauma, infection, tumor, or complications of surgery. However, many people develop NPH even when none of these factors are present. In these cases the cause of the disorder is unknown.
                
Symptoms of NPH include progressive mental impairment and dementia, problems with walking, and impaired bladder control. The person also may have a general slowing of movements or may complain that his or her feet feel "stuck." Because these symptoms are similar to those of other disorders such as Alzheimer's disease, Parkinson's disease, and Creutzfeldt-Jakob disease, the disorder is often misdiagnosed. Many cases go unrecognized and are never properly treated. Doctors may use a variety of tests, including brain scans (CT and/or MRI), a spinal tap or lumbar catheter, intracranial pressure monitoring, and neuropsychological tests, to help them diagnose NPH and rule out other conditions.
Question: What is (are) Anencephaly ?
Answer: Anencephaly is a defect in the closure of the neural tube during fetal development. The neural tube is a narrow channel that folds and closes between the 3rd and 4th weeks of pregnancy to form the brain and spinal cord of the embryo. Anencephaly occurs when the "cephalic" or head end of the neural tube fails to close, resulting in the absence of a major portion of the brain, skull, and scalp. Infants with this disorder are born without a forebrain (the front part of the brain) and a cerebrum (the thinking and coordinating part of the brain). The remaining brain tissue is often exposed--not covered by bone or skin. A baby born with anencephaly is usually blind, deaf, unconscious, and unable to feel pain. Although some individuals with anencephaly may be born with a rudimentary brain stem, the lack of a functioning cerebrum permanently rules out the possibility of ever gaining consciousness. Reflex actions such as breathing and responses to sound or touch may occur.
                
The cause of anencephaly is unknown. Although it is thought that a mother's diet and vitamin intake may play a role, scientists believe that many other factors are also involved.
                
Recent studies have shown that the addition of folic acid (vitamin B9) to the diet of women of childbearing age may significantly reduce the incidence of neural tube defects. Therefore it is recommended that all women of childbearing age consume 0.4 mg of folic acid daily.
Question: What is (are) Brachial Plexus Injuries ?
Answer: The brachial plexus is a network of nerves that conducts signals from the spine to the shoulder, arm, and hand. Brachial plexus injuries are caused by damage to those nerves. Symptoms may include a limp or paralyzed arm; lack of muscle control in the arm, hand, or wrist; and a lack of feeling or sensation in the arm or hand. Brachial plexus injuries can occur as a result of shoulder trauma, tumors, or inflammation. There is a rare syndrome called Parsonage-Turner Syndrome, or brachial plexitis, which causes inflammation of the brachial plexus without any obvious shoulder injury. This syndrome can begin with severe shoulder or arm pain followed by weakness and numbness. In infants, brachial plexus injuries may happen during birth if the babys shoulder is stretched during passage in the birth canal (see Brachial Plexus Birth Injuries). 
                
The severity of a brachial plexus injury is determined by the type of damage done to the nerves. The most severe type, avulsion, is caused when the nerve root is severed or cut from the spinal cord. There is also an incomplete form of avulsion in which part of the nerve is damaged and which leaves some opportunity for the nerve to slowly recover function. Neuropraxia, or stretch injury, is the mildest type of injury Neuropraxia damages the protective covering of the nerve, which causes problems with nerve signal conduction, but does not always damage the nerve underneath.