see here : http://library.thinkquest.org/28383/nowe_teksty/htmla/2_14a.html
A hydrogen electron changes position billions of times per second, as it orbits the nucleus at extremely high speeds. The specific number of changes depends on the energy level of the electron and the distance from the nucleus.
Depends on the energy of the photon. If the energy of the photon is less than the energy of ionization of the hydrogen - energy required to expell the electron from the nucleus force field - then the electron will just get more energetic and go to an orbital further from the nucleus. If the energy of the photon is higher than the energy of ionization of the hydrogen, then the electron will be expelled, and the hydrogen will become an ion - H+.
The electrons can only travel in certain orbits: at a certain discrete set of distances from the nucleus with specific energies. # The electrons of an atom revolve around the nucleus in orbits. These orbits are associated with definite energies and are also called energy shells or energy levels
Electrons in a hydrogen atom do not collide with the proton due to the electromagnetic forces that balance the attraction between them (proton and electron). The electron orbits the nucleus in defined energy levels, establishing stability within the atom. The probability distribution of an electron's position allows it to be close to the proton without actually colliding with it.
The sub-atomic particle that orbits the nucleus in an atom is called an electron.
Hydrogen only has one electron orbit, as it only has one electron.
Since hydrogen only has one electron that constantly absorbs and emits energy while transitioning back and forth through its energy levels, Bohr realized that each of hydrogens orbits was quantized only allowing an electron of specific energy, frequency & wavelength, to occupy it. So he deduced that hydrogen only has a specific line spectum, thus it has specified "orbits" rather than "orbitals" of probability distribution of electrons.
According to the Bohr model, the single electron of a hydrogen atom moves in circular orbits around the nucleus at specific energy levels. The electron can only occupy certain quantized energy levels and emits energy when transitioning between levels.
As the orbit of the electron increases, the electron's energy also increases. Electrons in higher energy orbits are farther from the nucleus and have more potential energy. Conversely, electrons in lower energy orbits are closer to the nucleus and have less energy.
A hydrogen electron changes position billions of times per second, as it orbits the nucleus at extremely high speeds. The specific number of changes depends on the energy level of the electron and the distance from the nucleus.
I am pretty sure it's one because the highest is 7 and the farther away you are the lower the energy level!
A hydrogen atom has one proton and one electron. The proton is located in the nucleus, while the electron orbits around the nucleus. This balance of one proton and one electron gives hydrogen its neutral charge.
No, in Bohr's theory of the hydrogen atom, the electron can only occupy certain allowed energy levels, corresponding to specific orbits around the nucleus. The electron can transition between these levels by either absorbing or emitting energy in discrete quanta.
They have many names. Common ones are orbitals or energy levels.
The electron has a negative charge and orbits the positively charged atomic nucleus. Many compounds are made possible by electron sharing between elements.
Depends on the energy of the photon. If the energy of the photon is less than the energy of ionization of the hydrogen - energy required to expell the electron from the nucleus force field - then the electron will just get more energetic and go to an orbital further from the nucleus. If the energy of the photon is higher than the energy of ionization of the hydrogen, then the electron will be expelled, and the hydrogen will become an ion - H+.
The diagram shows the ionization energies of hydrogen. The ionization energy for a ground-state electron in hydrogen is 13.6eV. Let's jump. An electron orbits an atom of hydrogen in as low an energy level as possible. That's the ground state of hydrogen. To tear that electron away, it takes some amount of energy. In this case, it takes 13.6eV to strip off that electron. But what if the electron is in the next higher allowable energy level because the gas it hot? In that case, it takes less energy to tear that electron away because you've got a "head start" owing to the fact that the electron is in a higher orbital than the ground state. And what if it's in the next higher allowable energy level? Or the next? Less and less energy is required to strip off the electron as it moves to higher energy levels. These are the ionization energies of hydrogen. These energy levels are specific to hydrogen. Each other element will have a different set if ionization energies associated with it. And with atoms with many electrons and complex electron structures, the problem can quickly become very complex.