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The climate is humid continental with warm summers and cold winters.
One might find deciduous trees in a humid continental climate.
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The climate is humid continental, similar to that of Sofia.
One might find deciduous trees in a humid continental climate.
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The climate is of the continental type.
One might find deciduous trees in a humid continental climate.
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The climate is of tropical humid type.
One might find deciduous trees in a humid continental climate.
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The climate of Clinton County can be classified as humid continental.
One might find deciduous trees in a humid continental climate.
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The climate of New York is the humid continental type;
One might find deciduous trees in a humid continental climate.
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The climate of Old Forge is classified as humid continental.
One might find deciduous trees in a humid continental climate.
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The climate of Shreveport is transitional between the subtropical humid type prevalent in the south and the continental climates of the Great Plains and Middle West to the north.
One might find deciduous trees in a humid continental climate.
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The fungus is transmitted to the trees during periods of high relative humidity, which is much more common in a maritime climate rather than in the continental climate found in the GYA.
One might find deciduous trees in a humid continental climate.
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The town lies within the humid continental climate zone.
One might find deciduous trees in a humid continental climate.
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Towanda, as well as the entire county, has a humid continental type of climate.
One might find deciduous trees in a humid continental climate.
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Tsetserleg has a borderline humid continental climate (Dwb).
One might find deciduous trees in a humid continental climate.
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You can also find it on the drier side of the humid subtropical and humid continental climates and the west coast marine climate.
One might find deciduous trees in a humid continental climate.
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1 The two most common types of diabetes are Type 1 (insulin-dependent diabetes, or IDDM), when the pancreas cannot produce insulin, and Type 2 (non-insulin-dependent diabetes, or NIDDM), when the pancreas produces insulin but the body cannot properly use it.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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In Type 1 (insulin dependent) diabetes, insulin must be used because the pancreas is not producing the insulin the body needs.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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In Type 2 (non-insulin-dependent or adult-onset) diabetes the body can't properly use the insulin produced by the pancreas.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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In Type 2 diabetes (Non-Insulin-Dependent Diabetes Mellitus, NIDDM), either the pancreas doesn't make enough insulin or cells do not use insulin in the right way.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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In Type 2 diabetes (sometimes called adult-onset diabetes or noninsulin-dependent diabetes), the pancreas still makes insulin, but the body can't use it properly.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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In Type 2 diabetes the pancreas does not produce enough insulin or the body does not effectively use the insulin that is produced.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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In Type 2 diabetes, the pancreas still makes insulin, but not enough to meet the body's needs.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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In Type I diabetes, the body destroys the cells in the pancreas that make insulin, which helps convert food into energy.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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In Type II diabetes, some insulin is produced by the pancreas, but due to a cell-receptor defect, the insulin cannot be used effectively.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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In type 1 diabetes your body destroys the cells in the pancreas that produce insulin, usually leading to a total failure to produce insulin.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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In type 1 diabetes, the pancreas makes little or no insulin.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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Most sufferers experience type 2 diabetes in which the pancreas keeps making insulin but the body cannot use it very well.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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TREATMENT In Type 2 diabetes the beta cells of the pancreas produce varying amounts of insulin, but the body is unable to use it effectively.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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Type 2 diabetes is caused by insufficient production of insulin in the pancreas and a resistance to the action of insulin in the body's cells, especially muscle, fat and liver cells.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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Type 2 diabetes occurs when the cells do not use insulin properly and the pancreas is not producing enough insulin.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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Type 2 diabetes occurs when the pancreas cannot make enough insulin or the cells in the body cannot properly use the insulin.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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Types of Diabetes Type 1 diabetes occurs when the pancreas can no longer make insulin.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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When type 2 diabetes is diagnosed, the pancreas is usually producing enough insulin, but, for unknown reasons, the body cannot use the insulin effectively, a condition called insulin resistance.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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With Type II diabetes, the pancreas can make insulin, but the body does not respond to it, a characteristic known as insulin resistance.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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With Type II diabetes, your pancreas may make enough insulin, but your body's cells can't use it properly.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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With this type of diabetes, the body produces antibodies that attack the pancreas cells that produce insulin.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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type 2 Diabetes is a disease in which the body still makes some insulin, but the cells cannot use it properly.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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type 2 diabetes Type 2 diabetes is a result of the body's inability to make enough or to properly use insulin.
In type 2 diabetes, the pancreas can still make insulin, but the cells of the body cannot use it efficiently.
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After eating the infected crayfish, smallmouth bass and other vertebrates are utilized as secondary hosts, providing an environment that is suitable for the flukes to reproduce sexually.
All vertebrates reproduce sexually.
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All cephalopods are sexually dimorphic and reproduce by laying eggs.
All vertebrates reproduce sexually.
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All coelenterates reproduce sexually.
All vertebrates reproduce sexually.
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All frogs reproduce sexually , and all hatch from eggs.
All vertebrates reproduce sexually.
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All sexually reproducing organisms have an alternation of generations
All vertebrates reproduce sexually.
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All vertebrates can reproduce sexually and almost all species need a male and a female , however, some species are hermaphroditic , meaning they have both male and female sex organs .
All vertebrates reproduce sexually.
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Among ants who do not reproduce sexually, all of the members of the colony are female.
All vertebrates reproduce sexually.
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However, others reproduce sexually, which occurs in several ways.
All vertebrates reproduce sexually.
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In addition, nearly all species reproduce sexually and are hermaphroditic.
All vertebrates reproduce sexually.
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In all sexually reproducing animals the production and maturation of the ovum, its fertilization fertilization,
All vertebrates reproduce sexually.
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Insect Reproduction Nearly all insects reproduce sexually.
All vertebrates reproduce sexually.
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Nearly all fish reproduce sexually and have separate sexes.
All vertebrates reproduce sexually.
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Nearly all fish reproduce sexually, and most species have separate sexes.
All vertebrates reproduce sexually.
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Not all fungi reproduce sexually and many that do are isogamous;
All vertebrates reproduce sexually.
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One which can be readily distinguished from all others in a significant way, and will reliably sexually reproduce others like itself.
All vertebrates reproduce sexually.
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Plants can reproduce one of two ways, sexually or asexually.
All vertebrates reproduce sexually.
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The New Mexico Whiptail lizard cannot sexually reproduce because they are all females.
All vertebrates reproduce sexually.
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The most advanced of the plants have their own way of sexually reproducing.
All vertebrates reproduce sexually.
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They reproduce sexually, and they reproduce asexually.
All vertebrates reproduce sexually.
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This small flower like nearly all plants reproduces sexually.
All vertebrates reproduce sexually.
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To be sure, in sexually reproducing organisms, not all genes get into all gametes.
All vertebrates reproduce sexually.
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Vertebrates reproduce sexually, and almost all of them have separate male and female sexes.
All vertebrates reproduce sexually.
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it is easily maintained in culture and reproduces sexually, to produce a tailed swimming larva with a vertebrate body plan, and vegetatively by budding.
All vertebrates reproduce sexually.
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The juvenile worm migrates through the host's body and finally ends up in the host's small intestine where it grows to sexual maturity.
In intestines human organ do the juveniles develop into sexually mature adults.
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The metacercaria is released in the intestine and migrates to the lungs to mature into an adult.
In intestines human organ do the juveniles develop into sexually mature adults.
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4) Chromosomes duplicated during interphase (time between mitoses).
The chromosomes duplicate in the interphase phase.
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Cells in G1 of Interphase are diploid do not have duplicated chromosomes because they have not been through the S phase of the cell cycle.
The chromosomes duplicate in the interphase phase.
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Cells in G1 of Interphase do not have duplicated chromosomes because they have not been through the S phase of the cell cycle.
The chromosomes duplicate in the interphase phase.
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Cells in G2 of Interphase have duplicated chromosomes because they have just been through the S phase of the cell cycle.
The chromosomes duplicate in the interphase phase.
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Chromosome domains in nuclei of human interphase lymphocytes.
The chromosomes duplicate in the interphase phase.
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Chromosomes replicate in Interphase to produce two sister chromatids .
The chromosomes duplicate in the interphase phase.
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D chromosome interactions in the Drosophila interphase nucleus.
The chromosomes duplicate in the interphase phase.
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DNA is duplicated during interkinesis, but not during interphase.
The chromosomes duplicate in the interphase phase.
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Detection of the Philadelphia chromosome in interphase nuclei.
The chromosomes duplicate in the interphase phase.
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Each daughter cell (with 23 chromosomes each consisting of two chromatids) then enters interphase, during which there is no duplication of the DNA.
The chromosomes duplicate in the interphase phase.
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Fluorescence in situ hybridization (FISH) A molecular cytogenetic technique using a specific DNA probe to hybridize the chromosome spread (interphase or metaphase) to detect a mutation (deletion or duplication) that may not be visible by routine cytogenetic methods.
The chromosomes duplicate in the interphase phase.
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In stage one, Interphase, the chromosomes duplicate, or make a copy.
The chromosomes duplicate in the interphase phase.
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Interphase is the cell cycle stage between mitotic divisions during which cell growth and chromosome duplication occurs.
The chromosomes duplicate in the interphase phase.
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Interphase pairing A weak chromosome pairing interaction occurs even in interphase cells.
The chromosomes duplicate in the interphase phase.
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It is as though reduction in levels of the 23C gamma-tubulin lead to a limited numbers of chromosome duplication cycles in the absence of mitosis, but this is followed by interphase cell cycle arrest.
The chromosomes duplicate in the interphase phase.
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Since the DNA has already been duplicated during the interphase, each chromatid consists of two chromosomes connected by a centromere.
The chromosomes duplicate in the interphase phase.
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The phases of interphase are G1, S and G2.
The chromosomes duplicate in the interphase phase.
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These can be used both on metaphase chromosomes and interphase nuclei.
The chromosomes duplicate in the interphase phase.
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While germ cells are in interphase, each chromosome is duplicated by a process called DNA replication ;
The chromosomes duplicate in the interphase phase.
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FUSION For the purpose of this class, is a nuclear reaction in which light nuclei combine to form a nucleus of a heavier mass number.
In the nuclear fusion process, two light nuclei combine to produce a heavier nucleus and great energy.
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Fusion Nuclear fusion is a type of nuclear reaction in which two atomic nuclei combine to form a heavier nucleus, releasing energy.
In the nuclear fusion process, two light nuclei combine to produce a heavier nucleus and great energy.
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If the nucleus is broken apart, or split, it releases energy in a process called nuclear fission.
In the nuclear fusion process, two light nuclei combine to produce a heavier nucleus and great energy.
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NUCLEAR ENERGY 8.1 ENERGY FROM NUCLEAR FUSION The nucleus of a hydrogen atom is a single proton.
In the nuclear fusion process, two light nuclei combine to produce a heavier nucleus and great energy.
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Nuclear energy is produced by the conversion of a small amount of the mass of the nucleus of an atom into energy.
In the nuclear fusion process, two light nuclei combine to produce a heavier nucleus and great energy.
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Nuclear fusion is when two or more light nuclei join together to form a heavier nucleus, releasing energy in the process.
In the nuclear fusion process, two light nuclei combine to produce a heavier nucleus and great energy.
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The Nuclear Debris Created For low-energy fission, the nucleus divides in two, typically producing a light fragment and a heavy fragment as fission products.
In the nuclear fusion process, two light nuclei combine to produce a heavier nucleus and great energy.
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The Nucleus and Nuclear Energy CH18.
In the nuclear fusion process, two light nuclei combine to produce a heavier nucleus and great energy.
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This is because stars get their energy from the process of nuclear fusion (two nuclei joining to form one heavier nucleus and releasing large amounts of energy).
In the nuclear fusion process, two light nuclei combine to produce a heavier nucleus and great energy.
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When the nucleus of an atom splits, nuclear energy is produced in the form of heat energy and light energy.
In the nuclear fusion process, two light nuclei combine to produce a heavier nucleus and great energy.
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energy is produced through the fusion of a fourth hydrogen nucleus to release a helium nucleus (alpha particle) and the original carbon isotope.
In the nuclear fusion process, two light nuclei combine to produce a heavier nucleus and great energy.
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nuclear (energy stored in the nucleus of an atom);
In the nuclear fusion process, two light nuclei combine to produce a heavier nucleus and great energy.
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nuclear fusion -- the binding of two light nuclei to form a heavier nucleus with some nuclear mass converted to energy.
In the nuclear fusion process, two light nuclei combine to produce a heavier nucleus and great energy.
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nuclear fusion A nuclear process that releases energy when lightweight nuclei combine to form heavy-weight nuclei.
In the nuclear fusion process, two light nuclei combine to produce a heavier nucleus and great energy.
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the fusion of two protons into a helium nucleus.
In the nuclear fusion process, two light nuclei combine to produce a heavier nucleus and great energy.
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In metaphase I, pairs of chromosomes (each with sister chromatids) line up.
In metaphase ii stage, chromosomes line up one on top of each other along the middle of the cell, similar to how they line up in mitosis.
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In mitosis, there is no pairing of homologs at all -- chromosomes do line up at metaphase, but not in pairs.
In metaphase ii stage, chromosomes line up one on top of each other along the middle of the cell, similar to how they line up in mitosis.
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Meiosis I is very similar to Mitosis, in which Prophase I involves the nucleus disappearing, Metaphase I involves the chromosomes lining up in the middle, and so on.
In metaphase ii stage, chromosomes line up one on top of each other along the middle of the cell, similar to how they line up in mitosis.
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Metaphase 2- When chromosomes line up in the center of the cell.
In metaphase ii stage, chromosomes line up one on top of each other along the middle of the cell, similar to how they line up in mitosis.
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Metaphase chromosomes differ from one another in size and shape, and the absolute length of any one chromosome varies depending on the stage of mitosis in which it was fixed.
In metaphase ii stage, chromosomes line up one on top of each other along the middle of the cell, similar to how they line up in mitosis.
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