The reactivity of group 17 elements differ as you move down the periods. Group 17 elements are missing 1 electron from their valance shell making them highly votile and reactive.
I'll try not to make this confusing:
1. As elements get bigger, they have a higher level of reactivity. (More "pull" needed from protons in the nucleus in order to keep valance shell electrons in orbit).
2. As you move from left to right in the groups, you have a higher level of reactivity.
3. Groups 1 and 17 have the highest levels of reactivity (except hydrogen in group 1) because they are away by only 1 valence electron.
The reactivity is increasing goinng down in the group.
A group 7 compound refers to a chemical compound that contains an element from group 7 of the periodic table, which is also known as the halogens group. This group includes elements such as fluorine, chlorine, bromine, iodine, and astatine. Group 7 compounds are known for their reactivity and tendency to form salts.
The reactivity of Group 7 halogens decreases as you move down the column from fluorine to iodine. This is because atomic size increases down the group, leading to weaker intermolecular forces of attraction between atoms. As a result, it becomes harder for the halogens to gain an extra electron and they become less reactive.
The reactivity of Group 1 elements increases with increasing atomic number. This is due to the fact that as atomic number increases, the outermost electron is farther away from the nucleus, making it easier to lose and therefore more reactive. Additionally, the size of the atom increases down the group, leading to a weaker attraction between the outermost electron and the nucleus, further enhancing reactivity.
Reactivity generally increases from top to bottom in Group 1 elements due to the decrease in ionization energy. In contrast, Group 2 elements do not show the same reactivity trend as Group 1; reactivity generally increases from top to bottom due to the decreasing ionization energy, but other factors such as atomic size and electron shielding can also influence the reactivity patterns in Group 2.
The reactivity increase down in the group.
the reactivity increases as you go down the group
The reactivity is increasing goinng down in the group.
The reactivity of Group 7 elements (halogens) increases down the group because atomic size increases, leading to weaker bonding within molecules. This makes it easier for larger atoms to gain an electron to achieve a full outer shell, resulting in higher reactivity. Additionally, as the number of electron levels increase down the group, the elements are in a higher energy state, making them more reactive.
A group 7 compound refers to a chemical compound that contains an element from group 7 of the periodic table, which is also known as the halogens group. This group includes elements such as fluorine, chlorine, bromine, iodine, and astatine. Group 7 compounds are known for their reactivity and tendency to form salts.
As you go down group 7 (halogens), reactivity decreases. This is because as you move down the group, the outer electron shells of the halogens are further away from the nucleus, making it harder for them to gain an electron and react with other elements. Additionally, the atomic size increases which leads to weaker intermolecular forces between the atoms.
Th reactivity of alkali metals increases from the top of Group 1A to the bottom
The reactivity of Group 7 halogens decreases as you move down the column from fluorine to iodine. This is because atomic size increases down the group, leading to weaker intermolecular forces of attraction between atoms. As a result, it becomes harder for the halogens to gain an extra electron and they become less reactive.
The reactivity of Group 1 elements increases with increasing atomic number. This is due to the fact that as atomic number increases, the outermost electron is farther away from the nucleus, making it easier to lose and therefore more reactive. Additionally, the size of the atom increases down the group, leading to a weaker attraction between the outermost electron and the nucleus, further enhancing reactivity.
As you move down Group 17 (halogens) from top to bottom, the reactivity decreases. This is due to the increasing atomic size and electron shielding, making it more difficult for the outer electron to be gained by the lower elements in the group, thus decreasing their reactivity.
Reactivity generally increases from top to bottom in Group 1 elements due to the decrease in ionization energy. In contrast, Group 2 elements do not show the same reactivity trend as Group 1; reactivity generally increases from top to bottom due to the decreasing ionization energy, but other factors such as atomic size and electron shielding can also influence the reactivity patterns in Group 2.
the reactivity of halogens goes on decreasing as we go down the group, because of increasing in atomic size of the respective element.