DefenceLab/scitail · Datasets at Hugging Face

premise stringlengths 1 69.2k	hypothesis stringlengths 21 234	label class label 2 classes
In the thermosphere, temperature increases with altitude.	Air temperature changes as altitude increases.	1entails
In year's past the air temperatures have steadily dropped as the altitude increases.	Air temperature changes as altitude increases.	1entails
Normally, as you rise in altitude, the temperature decreases due to the changes in air pressure.	Air temperature changes as altitude increases.	1entails
The speed of sound changes as altitude and air temperature change.	Air temperature changes as altitude increases.	0neutral
Under most conditions, the air temperature decreases as altitude increases.	Air temperature changes as altitude increases.	1entails
While the air temperature of an indoor environment is normally controlled and is not affected by the altitude change, the indoor air pressure does change with the altitude.	Air temperature changes as altitude increases.	0neutral
With increasing altitude the temperatures get colder;	Air temperature changes as altitude increases.	1entails
density altitude pressure altitude corrected for air temperature.	Air temperature changes as altitude increases.	0neutral
A different kind of metastable nuclear state (isomer) is the fission isomer or shape isomer.	Alkenes with the same atoms but different shapes are called isomers.	0neutral
Constitutional isomers have different atomic connectivities.	Alkenes with the same atoms but different shapes are called isomers.	0neutral
However, when the corresponding trans isomer is subjected to the same conditions, the major product is 3-methylcyclohexane, a disubstituted alkene.	Alkenes with the same atoms but different shapes are called isomers.	0neutral
Isomers (chemistry) Isomers, are two or more chemical compounds that have the same number of each kind of atom, but differ in the way the atoms are arranged.	Alkenes with the same atoms but different shapes are called isomers.	1entails
Isomers are molecules with the same atoms, but in a different arrangement.	Alkenes with the same atoms but different shapes are called isomers.	1entails
Molecules which have the same formula, but different spatial arrangement of atoms, like this example, are called isomers .	Alkenes with the same atoms but different shapes are called isomers.	1entails
Since alkene geometric isomers are also classified as diastereomers, this reaction would also be called diastereoselective.	Alkenes with the same atoms but different shapes are called isomers.	0neutral
Stereoisomers Isomers that have their atoms connected in the same order but have different three-dimensional arrangements.	Alkenes with the same atoms but different shapes are called isomers.	0neutral
The two trans alkenes react head-to-tail, and the isolated isomers are called truxillic acids.	Alkenes with the same atoms but different shapes are called isomers.	0neutral
Three Different Isomers in the Same Crystal.	Alkenes with the same atoms but different shapes are called isomers.	0neutral
We have already seen constiturtional isomers (which have atoms bonded to different atoms such as butane and isobutane) and geometric isomers (also stereoisomers) like E and Z in alkenes.	Alkenes with the same atoms but different shapes are called isomers.	0neutral
14C and 12C are both isotopes of carbon (they each have six protons -- the atomic number is the same), but they have a different number of neutrons (thus the atomic weight is different).	All carbon atoms have six protons.	1entails
All carbon atoms have six protons, but isotopes of carbon can have 12, 13, or 14 neutrons.	All carbon atoms have six protons.	1entails
An atom of carbon has six protons and six neutrons.	All carbon atoms have six protons.	1entails
An ordinary carbon atom has six protons and six neutrons in its nucleus;	All carbon atoms have six protons.	1entails
Both isotopes have six protons, but carbon 12 has six neutrons, while carbon 13 has seven.	All carbon atoms have six protons.	0neutral
Carbon has six protons and six electrons.	All carbon atoms have six protons.	1entails
Carbon, for example has six protons and six electrons.	All carbon atoms have six protons.	1entails
Every atom of hydrogen, for example, has one proton, and every atom of carbon has six protons.	All carbon atoms have six protons.	1entails
Every atom that has exactly six protons is a carbon atom.	All carbon atoms have six protons.	1entails
For example all carbon atoms contain six protons, all gold atoms contain 79 protons, all lead atoms contain 82 protons.	All carbon atoms have six protons.	1entails
For example, all atoms of carbon contain six protons, all atoms of oxygen contain eight protons.	All carbon atoms have six protons.	1entails
For example, an atom with six protons in its nucleus is a carbon atom; seven protons makes it nitrogen; eight protons makes it oxygen, and so on.	All carbon atoms have six protons.	1entails
For example, any atom with six protons in its nucleus is a carbon atom.	All carbon atoms have six protons.	1entails
For example, carbon atoms always have six protons, but may have six, seven, or eight neutrons.	All carbon atoms have six protons.	1entails
For example, if an atom has six protons, it can only be carbon.	All carbon atoms have six protons.	1entails
For instance, an atom of carbon could be carbon 12, having six protons and neutrons, carbon 13 (six protons and seven neutrons), or carbon 14 (six protons and eight neutrons).	All carbon atoms have six protons.	1entails
For instance, carbon has an atomic number of six and therefore has six protons and six electrons.	All carbon atoms have six protons.	1entails
If an atom has six protons, it is carbon.	All carbon atoms have six protons.	1entails
Introduction Scientists typically get the same answers, such as all chemists saying that carbon atoms have six protons;	All carbon atoms have six protons.	1entails
Most carbon atoms in the world have six protons and six neutrons in their nucleus.	All carbon atoms have six protons.	1entails
Since the atom now has six protons, it is an atom of carbon.	All carbon atoms have six protons.	1entails
The atoms called Carbon form the basis of life and have six protons in the nucleus.	All carbon atoms have six protons.	1entails
The element with six protons and six electrons is called carbon.	All carbon atoms have six protons.	1entails
This problem is common to all six carbon atoms in the ring.	All carbon atoms have six protons.	0neutral
Thus, all carbon isotopes have nearly identical chemical properties because they all have six protons and six electrons, even though carbon atoms may, for example, have 6 or 8 neutrons.	All carbon atoms have six protons.	1entails
a carbon atom has six protons, six neutrons, and six electrons;	All carbon atoms have six protons.	1entails
e.g., a carbon atom has six protons but may have more or less than usual six neutrons.	All carbon atoms have six protons.	1entails
the atom of carbon has six protons and six neutrons, and so on.	All carbon atoms have six protons.	1entails
All cells need insulin to carry blood glucose, or sugar, into them for energy.	All cells need glucose for energy.	1entails
Carbohydrates are converted to glucose in the body and insulin helps cells utilize glucose for energy.	All cells need glucose for energy.	1entails
Carbohydrates turn into glucose, and we need glucose in our cells for energy.	All cells need glucose for energy.	1entails
Glucose is an important energy source for the functioning of all the cells of the body.	All cells need glucose for energy.	1entails
The cells of the animal body make use of this glucose to derive its energy needs.	All cells need glucose for energy.	1entails
The main function of the carbohydrates is eventual conversion to an energy source in the form of glucose, the primary energy source for all cells in the body.	All cells need glucose for energy.	1entails
Tissues that do not need to use glucose for energy (for example, muscle cells) start burning the fatty acids.	All cells need glucose for energy.	0neutral
We need glucose because it provides energy for our brain, central nervous system, and all of our bodies' cells.	All cells need glucose for energy.	1entails
Active transport requires energy from the cell.	All cells need energy for processes like active transport.	1entails
Active transport requires the cell to spend energy, usually in the form of ATP .	All cells need energy for processes like active transport.	1entails
All cells need energy to carry out their functions, such as making proteins and transporting substances into and out of the cell.	All cells need energy for processes like active transport.	1entails
All cells, including both plant and animal cells, need energy for processes such as active transport.	All cells need energy for processes like active transport.	1entails
Cells have many mitochondria to supply energy for active transport.	All cells need energy for processes like active transport.	1entails
Iron is an integral part of oxygen transport in red blood cells and for the processes in your cells that make energy.	All cells need energy for processes like active transport.	0neutral
examination of cell structure and their functions in the processes of energy conservation, photosynthesis, biosynthesis, and cell transport;	All cells need energy for processes like active transport.	0neutral
A cell not undergoing division.	All cells undergo cell division during a lifetime, but when this process is out of control, cancer results.	0neutral
Cancer cells are not able to undergo apoptosis.	All cells undergo cell division during a lifetime, but when this process is out of control, cancer results.	0neutral
Control of cell division was the result of control of nuclear division;	All cells undergo cell division during a lifetime, but when this process is out of control, cancer results.	0neutral
Each cell is drawn as it is undergoing asexual cell division.	All cells undergo cell division during a lifetime, but when this process is out of control, cancer results.	0neutral
Normal cells and cancer cells go through the same division cycle, but the controls that regulate the process in normal cells are absent in cancer cells.	All cells undergo cell division during a lifetime, but when this process is out of control, cancer results.	1entails
The virus may induce the cell to forcefully undergo cell division, which may lead to transformation of the cell and, ultimately, cancer.	All cells undergo cell division during a lifetime, but when this process is out of control, cancer results.	1entails
They do not do not undergo cell division.	All cells undergo cell division during a lifetime, but when this process is out of control, cancer results.	0neutral
As with all enzymes, pectinases have an optimum temperature and pH at which they are most active.	All enzymes have an optimal temperature and ph.	1entails
Each enzyme has its own particular optimal conditions of pH and temperature.	All enzymes have an optimal temperature and ph.	1entails
Explain what happens to enzymes if temperature and pH continually increase.	All enzymes have an optimal temperature and ph.	0neutral
Explain why enzymes have an optimum temperature and pH for their activity.	All enzymes have an optimal temperature and ph.	1entails
The enzyme has optimal pH The enzyme has optimal temperature.	All enzymes have an optimal temperature and ph.	1entails
all pH samples should have a temperature recording associated with them.	All enzymes have an optimal temperature and ph.	0neutral
All matter is composed of basic elements that cannot be broken down to substances with different chemical or physical properties.	All matter in the universe is composed of one or more unique pure substances called elements.	1entails
All the material or substance of which the earth and its inhabitants is composed is formed of the chemical elements ; this substance taken all together is known as matter.	All matter in the universe is composed of one or more unique pure substances called elements.	1entails
All the matter in the universe is composed of the atoms of more than 100 different chemical elements , which are found both in pure form and combined in chemical compounds.	All matter in the universe is composed of one or more unique pure substances called elements.	1entails
An element is a substance that is composed of one kind of atom;	All matter in the universe is composed of one or more unique pure substances called elements.	0neutral
Everything that exists in the universe is either a pure chemical or a mixture, composed of one or more of the elements shown in the above Periodic Table of the Elements.	All matter in the universe is composed of one or more unique pure substances called elements.	1entails
In this scheme of things, the elements of air and fire predominated and together they composed a fifth element, more pure than the rest, which the ancients called "the aether.	All matter in the universe is composed of one or more unique pure substances called elements.	0neutral
PEF executable files are composed of one or more elements called Code Fragments.	All matter in the universe is composed of one or more unique pure substances called elements.	0neutral
Recall that matter is composed of different substances that are called elements .	All matter in the universe is composed of one or more unique pure substances called elements.	1entails
The substance of a Table Group is composed an optional Table Header element, one or more Table Body elements, and an optional Table Footer element.	All matter in the universe is composed of one or more unique pure substances called elements.	0neutral
To the Buddhist, the universal elements of Matter are more energies than the substances.	All matter in the universe is composed of one or more unique pure substances called elements.	0neutral
a pure substance composed of two or more elements whose composition is constant.	All matter in the universe is composed of one or more unique pure substances called elements.	0neutral
all matter is composed of elements or combinations of elements.	All matter in the universe is composed of one or more unique pure substances called elements.	1entails
alloy A substance having metallic properties and being composed of two or more chemical elements of which at least one is an elemental metal.	All matter in the universe is composed of one or more unique pure substances called elements.	0neutral
91 All of the above indicates that population structure may be more important to a community's diversity, whether parasitic or free-living, than interactions among its member species.	All members of a species living together form a(n) population.	0neutral
A population is all the members of one species that live in the same area.	All members of a species living together form a(n) population.	1entails
A population is usually defined as all of the individuals of the same species that live in a given area.	All members of a species living together form a(n) population.	1entails
A species of lizard lives on islands of all sizes and has the same population density on each of those islands.	All members of a species living together form a(n) population.	0neutral
All living populations and species are continuously changing in response to pressures from other organisms, and to variability in Earth's geology and climate.	All members of a species living together form a(n) population.	0neutral
All populations of all species in a habitat	All members of a species living together form a(n) population.	0neutral
All populations of different species.	All members of a species living together form a(n) population.	0neutral
All the members of one particular species in a give area are called a population.	All members of a species living together form a(n) population.	1entails
Community All the populations of different species that live in the same place at the same time.	All members of a species living together form a(n) population.	0neutral
Extinction- Many species and populations live in the tropical rainforest.	All members of a species living together form a(n) population.	0neutral
For example, a disease may be deadly to most members of a population, but if a few individuals are genetically different enough to survive it, the species will live on.	All members of a species living together form a(n) population.	0neutral
Homo sapiens is a worldwide species with some 6 billion highly varying members, all descending from a small ancestral population that lived in Africa some 200,000 years ago.	All members of a species living together form a(n) population.	0neutral

In the thermosphere, temperature increases with altitude.

Air temperature changes as altitude increases.

1entails

In year's past the air temperatures have steadily dropped as the altitude increases.

Air temperature changes as altitude increases.

1entails

Normally, as you rise in altitude, the temperature decreases due to the changes in air pressure.

Air temperature changes as altitude increases.

1entails

The speed of sound changes as altitude and air temperature change.

Air temperature changes as altitude increases.

0neutral

Under most conditions, the air temperature decreases as altitude increases.

Air temperature changes as altitude increases.

1entails

While the air temperature of an indoor environment is normally controlled and is not affected by the altitude change, the indoor air pressure does change with the altitude.

Air temperature changes as altitude increases.

0neutral

With increasing altitude the temperatures get colder;

Air temperature changes as altitude increases.

1entails

density altitude pressure altitude corrected for air temperature.

Air temperature changes as altitude increases.

0neutral

A different kind of metastable nuclear state (isomer) is the fission isomer or shape isomer.

Alkenes with the same atoms but different shapes are called isomers.

0neutral

Constitutional isomers have different atomic connectivities.

Alkenes with the same atoms but different shapes are called isomers.

0neutral

However, when the corresponding trans isomer is subjected to the same conditions, the major product is 3-methylcyclohexane, a disubstituted alkene.

Alkenes with the same atoms but different shapes are called isomers.

0neutral

Isomers (chemistry) Isomers, are two or more chemical compounds that have the same number of each kind of atom, but differ in the way the atoms are arranged.

Alkenes with the same atoms but different shapes are called isomers.

1entails

Isomers are molecules with the same atoms, but in a different arrangement.

Alkenes with the same atoms but different shapes are called isomers.

1entails

Molecules which have the same formula, but different spatial arrangement of atoms, like this example, are called isomers .

Alkenes with the same atoms but different shapes are called isomers.

1entails

Since alkene geometric isomers are also classified as diastereomers, this reaction would also be called diastereoselective.

Alkenes with the same atoms but different shapes are called isomers.

0neutral

Stereoisomers Isomers that have their atoms connected in the same order but have different three-dimensional arrangements.

Alkenes with the same atoms but different shapes are called isomers.

0neutral

The two trans alkenes react head-to-tail, and the isolated isomers are called truxillic acids.

Alkenes with the same atoms but different shapes are called isomers.

0neutral

Three Different Isomers in the Same Crystal.

Alkenes with the same atoms but different shapes are called isomers.

0neutral

We have already seen constiturtional isomers (which have atoms bonded to different atoms such as butane and isobutane) and geometric isomers (also stereoisomers) like E and Z in alkenes.

Alkenes with the same atoms but different shapes are called isomers.

0neutral

14C and 12C are both isotopes of carbon (they each have six protons -- the atomic number is the same), but they have a different number of neutrons (thus the atomic weight is different).