I think you're talking about nonpolar covalent molecules. These molecules share their electrons equally between atoms.
A non-example of an electron cloud would be a single isolated electron traveling in a vacuum. In this case, there would be no cloud formation or distribution of multiple electrons around a nucleus.
The electron is located in the electon cloud around the nuclues. some people may say a cloud but it is a electron cloud. hope this helps. Also You can add clouds to make a electron2 cloud
The most probable location of finding an electron in an atom is determined by the electron cloud orbital, which represents the regions where an electron is likely to be found. These regions are shaped by the probability distribution function of the electron within an atom, as described by quantum mechanics.
Electrons form a cloud around the nucleus of an atom. They have a negative charge and move rapidly in a probability distribution around the nucleus, representing the electron cloud or electron cloud model of an atom.
This great question is one of the questions in physics that led to quantum mechanics. It turns out that the electron's location cannot be determined with precision. It can only be assigned a probablity associated with it being in a given location at a given time. Furthermore, it is a mistake to think that this is because it is just difficult to do. The electron's position truly is only a probability not matter how carefully you try to measure it.
The distribution of electron around an atom in various shells is sometimes referred to as electron cloud. If there are more electrons in certain space around the atom, that space is said to have a denser electron cloud.
A non-example of an electron cloud would be a single isolated electron traveling in a vacuum. In this case, there would be no cloud formation or distribution of multiple electrons around a nucleus.
The electron is located in the electon cloud around the nuclues. some people may say a cloud but it is a electron cloud. hope this helps. Also You can add clouds to make a electron2 cloud
It is impossible to know exactly where an electron is. Thus, the size of an electron cloud can be given only in terms of probability. Even then, the size of the electron cloud depends on how many electrons an atom possesses.
The results of an atom's electron distribution are similar to our calculations in that both involve the probability of finding a particular entity (electron or result) in a specific state. Just as the electron cloud represents the likelihood of finding an electron in a particular location, our results show the likelihood of obtaining a specific outcome in our experiment. Both concepts involve probability distributions to describe possible states or outcomes.
An electron around an atom forms a sort of cloud; the cloud represents the probability distribution of finding the electron in different places. In the simplest case, this distribution is spherically symmetrical, but for the outer electrons, the distribution is more complicated. For more information, check the Wikipedia article on "Atomic orbital".
The most probable location of finding an electron in an atom is determined by the electron cloud orbital, which represents the regions where an electron is likely to be found. These regions are shaped by the probability distribution function of the electron within an atom, as described by quantum mechanics.
An electron cloud is a visual representation of the space where an electron is likely to be found in an atom, based on quantum mechanics. It is not a physical cloud but a probability distribution. The term "shell" is often used to describe the energy levels where electrons are located around the nucleus of an atom.
In the electron cloud model, electrons are predicted to be located in the electron cloud 100% of the time. This model suggests that electrons do not orbit the nucleus in fixed paths like planets around the sun, but rather exist as a probability distribution around the nucleus.
The Electron Cloud Model does not adequately represent the spatial distribution of electrons or their exact positions. It also does not address the dynamic nature of electron movement within the atom. Additionally, it does not provide a clear visualization of electron behavior in relation to the nucleus.
Electrons form a cloud around the nucleus of an atom. They have a negative charge and move rapidly in a probability distribution around the nucleus, representing the electron cloud or electron cloud model of an atom.
An electron cloud is an atomic orbital.