in 5s it is filled but in 4d or 4s its half
The best analogy for the location of an electron in an atomic orbital is to think of it as a cloud surrounding the nucleus of an atom. This "cloud" represents the probability distribution of finding the electron in various locations, rather than a fixed path like a planet orbiting the sun. Just as a weather map shows areas of likelihood for rain, the atomic orbital indicates regions where the electron is most likely to be found.
The nucleus is one the order of one fermion in diameter. The nearest electron orbital is on the order of more than a thousand fermions from the nucleus. To me, that pretty far away.
A dull thud as it is a very soft metal, rather like putty.
Electrons move in definite regions called electron clouds or energy levels. Electron clouds do in fact contain energy levels, it is a common misconception. It is just that there are many levels each holding 2 electrons which are very many close in energy. the cloud idea was a very early model of metals, bands wre recognised nearly 100 years ago.
Modern atomic theory describes electrons as existing in a probability cloud around the nucleus, rather than following strict paths or orbits. This is known as the electron cloud model, which considers electrons to be spread out in regions known as orbitals. The exact location of an electron within an orbital is uncertain and subject to fluctuations.
It is rather difficult to answer this question without some sort of context. However, in general terms, I would say that an electron will always occupy the lowest possible energy state. If one is considering a single atom, then an electron will always occupy the lowest energy orbital (for a full list of orbital energies see the Wikipedia article "electronic configuration"). However, if other atoms are present then the electron will not necessarily occupy the lowest energy orbital. For example, in the formation of sulfur hexafluoride electrons are promoted from the 3s and 3p sub shells to the 3d sub shell, whilst this does require energy, the energy released in bonding with fluorine more than compensates for this. I hope this answers your question
The region outside the nucleus where an electron can most probably be found is the electron cloud or electron orbital. This region represents the three-dimensional space where there is a high probability of finding the electron based on its energy level. It is described by quantum mechanics as a probability distribution rather than a defined path.
The movement of planets around the Sun is the best analogy to describe the location of an electron in an atomic orbital.
The best analogy for the location of an electron in an atomic orbital is to think of it as a cloud surrounding the nucleus of an atom. This "cloud" represents the probability distribution of finding the electron in various locations, rather than a fixed path like a planet orbiting the sun. Just as a weather map shows areas of likelihood for rain, the atomic orbital indicates regions where the electron is most likely to be found.
Atomicity ? Well one definition is the same as valency which for rubidium is 1.
The nucleus is one the order of one fermion in diameter. The nearest electron orbital is on the order of more than a thousand fermions from the nucleus. To me, that pretty far away.
The specific orbital within a
No, it does not. In principle all atomic and molecular orbitals have an exponential decay in the outer part.These cloud pictures you probably know show only one selected contour of the total probability density distribution.
Copper has a partially filled d orbital to achieve greater stability. Hence, it gives up one electron from the 4s orbital to make the 3d orbital completely filled with 10 electrons, which is a more stable configuration. This results in the electron configuration of 3d10 4s1 for copper rather than 3d9 4s2.
Electrons exist in the electron cloud that surrounds the nucleus of an atom. This cloud is made up of the various orbitals that hold the electrons. Orbitals are regions of space in which the probability of finding an electron is the highest. The electrons orbit the nucleus in these orbitals and can move from one orbital to another as they gain or lose energy. 1s Orbital: This orbital is closest to the nucleus and can hold up to two electrons. 2s Orbital: This orbital is farther away from the nucleus and can hold up to two electrons. 2p Orbitals: These orbitals are even farther away from the nucleus and can hold up to six electrons. 3s Orbital: This orbital is farthest away from the nucleus and can hold up to two electrons. 3p Orbitals: These orbitals are even farther away from the nucleus and can hold up to six electrons. 3d Orbitals: These orbitals are the farthest away from the nucleus and can hold up to ten electrons.These orbitals are filled in a specific order with the 1s orbital being filled first then the 2s 2p 3s 3p and finally the 3d orbitals. The electrons in the outermost orbitals are called valence electrons and are responsible for the chemical properties of the atom.
The electron configuration of sulfur in the excited state is [Ne] 3s2 3p4, rather than the ground state configuration of [Ne] 3s2 3p4. In the excited state, an electron has moved from the 3p orbital to a higher energy level.
The 4s orbital is energetically lower than the 3d orbital, so electrons preferentially occupy the 4s orbital first in atoms like calcium and potassium. Electrons fill orbitals based on their energy levels, following the Aufbau principle, which explains why the valence electrons of these elements reside in the 4s orbital.