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Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutrons.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Protons have a positive charge, Electrons have a negative charge that cancels the proton's positive charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Neutrons are particles that are similar to a proton but have a neutral charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
There are no differences between positive and negative charges except that particles with the same charge repel each other and particles with opposite charges attract each other.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
If a solitary positive proton and negative electron are placed near each other they will come together to form a hydrogen atom.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
This repulsion and attraction (force between stationary charged particles) is known as the Electrostatic Force and extends theoretically to infinity, but is diluted as the distance between particles increases.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
When an atom has one or more missing electrons it is left with a positive charge, and when an atom has at least one extra electron it has a negative charge.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Having a positive or a negative charge makes an atom an ion.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Atoms only gain and lose protons and neutrons through fusion, fission, and radioactive decay.	Source Target Atoms, the smallest particles of matter that retain the properties of the matter, are made of protons, electrons, and neutron
Although atoms are made of many particles and objects are made of many atoms, they behave similarly to charged particles in terms of how they repel and attract.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
In an atom the protons and neutrons combine to form a tightly bound nucleus.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The cloud exists as a series of overlapping shells / bands in which the inner valence bands are filled with electrons and are tightly bound to the atom.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
The outer conduction bands contain no electrons except those that have accelerated to the conduction bands by gaining energy.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
With enough energy an electron will escape an atom (compare with the escape velocity of a space rocket).	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
When an electron in the conduction band decelerates and falls to another conduction band or the valence band a photon is emitted.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).
This is known as the photoelectric effect.	This nucleus is surrounded by a vast cloud of electrons circling it at a distance but held near the protons by electromagnetic attraction (the electrostatic force discussed earlier).

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