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What determines the most likely oxidation state of an element?
the number of electrons the element needs to lose or gain to have a full valence shell
Element with oxidation state of -2?
The most common oxidation state of -2 would be Oxygen.
Element M is a metal and its chloride has the formula MCl2 To which group of the Periodic Table does element M most likely belong?
2(IIA) Because The elements in Group 2 (IIA) are metals with a +2 oxidation state. Thus one atom of a Group 2 metal can combine with 2 atoms of chlorine (oxidation state = -1)
Oxidation state of chloride?
The oxidation state of chloride (Cl) is -1. As a halogen, chloride is usually found with an oxidation state of -1 in most compounds.
What is the most likely oxidation state of chlorine?
In one's initial studies of chemistry it is -1. However, don't forget that in chlorine itself the O.S. is zero.
What determines the most likely oxidation state of element?
The most likely oxidation state of an element is determined by the number of valence electrons it has. Elements tend to react in a way that allows them to achieve a full outer electron shell, often following the octet rule. This leads to the most common oxidation state for that element.
How is an element's most likely oxidation state related to its valence electrons?
It indicates how many electrons are required to complete a full valence shell.
What is the element Mercury major oxidation state?
Mercury's most common oxidation state is +2
How is an elements most likely oxidation state related to its valance electrons?
An element's most likely oxidation state is often related to its valence electrons because elements tend to gain or lose electrons to achieve a stable electron configuration. The number of valence electrons an element has can determine how many electrons it will gain or lose to reach a full or empty outer shell, resulting in a specific oxidation state.
What determines the most likely oxidation state of an element?
the number of electrons the element needs to lose or gain to have a full valence shell
What is the most likely oxidation state of Al?
The highest oxidation state which can be achieved by any element is +8. After all experiments, this state is only found in Osmium, Ruthenium and Xenon. But the synthetic element Hassium is also expected to have this oxidation state.
How is an elements most likely oxidation state related to its valence elections?
An element's most likely oxidation state is often related to its number of valence electrons. The oxidation state is typically the charge an atom assumes when it forms ions, and it tends to be the same as the number of valence electrons the atom gains or loses to achieve a stable electron configuration.
What is the most likely oxidation state of Cl?
the most common oxidation state of chlorine is -1.
What is the most likely oxidation state nitrogen?
-3
Which element has its most common oxidation state negative 2?
oxygen
How is an elements most likely oxidation state related to its balance electrons?
An element's most likely oxidation state is directly related to its valence electrons, which are the electrons in the outermost shell. Elements tend to lose, gain, or share electrons to achieve a stable electron configuration, often resembling that of the nearest noble gas. For example, alkali metals, which have one valence electron, typically exhibit a +1 oxidation state, while halogens, with seven valence electrons, usually have a -1 oxidation state. Thus, the number of valence electrons influences the charge an element is likely to adopt in chemical reactions.
What determines the most likely oxidation state of an elemement?
The most likely oxidation state of an element is primarily determined by its position in the periodic table, particularly its group number and electron configuration. Elements in the same group typically exhibit similar oxidation states due to their valence electron counts. For instance, alkali metals usually have a +1 oxidation state, while halogens typically exhibit a -1 state. Additionally, factors like electronegativity, atomic size, and the chemical environment can also influence the preferred oxidation state.
