Fluorine becomes stable when it gains one electron to achieve a full outer shell of electrons, containing 8 electrons in total. This allows fluorine to attain a stable electron configuration similar to that of a noble gas.
For potassium to become stable, it must have a full outer electron shell, typically with eight electrons (like a noble gas). This can be achieved by losing one electron to become a positively charged ion, as potassium tends to do in chemical reactions.
The fluorine atom gains one electron to achieve a stable electron configuration, resulting in a full valence shell of electrons. This transforms it into a fluoride ion, which is stable and unreactive.
When fluorine mixes with xenon in a glass vessel, it forms xenon hexafluoride (XeF6). This reaction is highly exothermic and can potentially become explosive. Special precautions must be taken when handling fluorine due to its high reactivity.
The elements in Group 7A (halogens) on the periodic table would need only 1 electron to achieve a stable electron configuration by filling their outermost shell with 8 electrons. For example, elements like fluorine, chlorine, and bromine each need only 1 more electron to reach stability.
Tantalum needs to lose 2 electrons to become stable. Tantalum has 73 protons, so losing 2 electrons will give it a full outer shell of 71 electrons, which is the most stable configuration for the element.
For fluorine to become stable, it needs to gain one electron to attain a full valence shell, similar to the electron configuration of neon. Fluorine has seven valence electrons in its outer shell, so gaining one electron would fill its outer shell and make it stable with a full octet like neon.
Nothing. Krypton is already just about as stable as it's possible for an element to get.
For sodium to become stable, it must lose one electron to achieve a full outer electron shell. This typically occurs through the formation of an ionic bond with another atom that can accept this extra electron, such as chlorine. Once sodium loses its electron and forms a stable bond, it becomes a stable compound.
For potassium to become stable, it must have a full outer electron shell, typically with eight electrons (like a noble gas). This can be achieved by losing one electron to become a positively charged ion, as potassium tends to do in chemical reactions.
The fluorine atom gains one electron to achieve a stable electron configuration, resulting in a full valence shell of electrons. This transforms it into a fluoride ion, which is stable and unreactive.
Potassium can lose one electron from its outer shell to achieve a stable electron configuration similar to argon. Fluorine can gain one electron to fill its outer shell and attain a stable electron configuration like neon. In both cases, the atoms are trying to achieve a full valence shell and become stable like the nearest noble gas.
When fluorine mixes with xenon in a glass vessel, it forms xenon hexafluoride (XeF6). This reaction is highly exothermic and can potentially become explosive. Special precautions must be taken when handling fluorine due to its high reactivity.
Beryllium is a stable element.
It must melt.
Oxygen must bond twice to become stable. In its stable form, oxygen molecules have a double bond (O=O), with each oxygen atom sharing two electrons.
The Hypothesis Must Be Supported In Order For It To Become A Theory
Aluminium is a metal and will lose electrons, it will lose three and so become a positive ion 3+. Fluorine will gain one electron and become negative, 1-. They will then bond together (ionic bonding) to form AlF3.