Strontium, with atomic symbol Sr, would be more like potassium, because both strontium and potassium are active metals and bromine is a nonmetal. The actual element with symbol S is sulfur, and that would be more like bromine, because those elements are both nonmetals.
No. However, bromine would displace iodine in potassium iodide.
When you combine potassium carbonate and strontium chloride, a double displacement reaction occurs where the potassium and strontium ions switch partners. This results in the formation of potassium chloride and strontium carbonate as the products. The reaction can be represented as: K2CO3 + SrCl2 -> 2KCl + SrCO3.
Potassium will lose electrons when reacting with bromine. Potassium is a metal and tends to lose electrons to achieve a stable electron configuration, while bromine is a nonmetal that tends to gain electrons to achieve a stable electron configuration.
The potassium atom would become positively charged - or a cation.
I would expect Neon not to drink up all the beer, to take embarrassing photos of its friends, or to get the cops called. I would also expect that of Potassium. Partygoers are a different question.
Strontium is closer to potassium because both are metals and belong to s-block of Periodic Table.
Strontium, with atomic symbol Sr, would be more like potassium, because both strontium and potassium are active metals and bromine is a nonmetal. The actual element with symbol S is sulfur, and that would be more like bromine, because those elements are both nonmetals.
No. However, bromine would displace iodine in potassium iodide.
The chemical formula for the combination of strontium and bromine is SrBr2. In this ionic compound, strontium (Sr) has a 2+ charge, while bromine (Br) has a 1- charge, requiring two bromine atoms to balance the charges.
Chlorine, Sodium, Magnesium, Sulphur, Calcium, Potassium, Bromine, Boron, Strontium and Silicon. Oh yeah...and Hydrogen and Oxygen.
When you combine potassium carbonate and strontium chloride, a double displacement reaction occurs where the potassium and strontium ions switch partners. This results in the formation of potassium chloride and strontium carbonate as the products. The reaction can be represented as: K2CO3 + SrCl2 -> 2KCl + SrCO3.
The chemical formula for potassium is K and for bromine is Br. When combined, their chemical formula would be KBr (potassium bromide).
A reaction would occur between bromine water and potassium astatide, resulting in the displacement of bromine by astatine. This would lead to the formation of potassium bromide and astatine would be released. The solution would likely change color as astatine is a highly reactive halogen with distinctive coloration.
Potassium will lose electrons when reacting with bromine. Potassium is a metal and tends to lose electrons to achieve a stable electron configuration, while bromine is a nonmetal that tends to gain electrons to achieve a stable electron configuration.
An ionic bond will form between potassium (K) and bromine (Br). This compound, potassium bromide, KBr, is a salt, which is, in general, the combination of a metal (a Group 1 or Group 2 element) and a halogen (a Group 17 element). All salts are bonded ionically.
In the chemical formula, the cation (potassium) would be written first followed by the anion (bromine). Therefore, the compound would be named potassium bromide.
When looking at potassium and bromine, it would seem that with more electrons occupying more orbitals, bromine would be larger. However, in addition to those additional electrons, bromine also has additional protons. These protons in the nucleus pull on all of bromine's electrons with more strength than the nucleus of potassium, and the stronger pull offsets any size gained by adding electrons. In short, bromine's nucleus pulls harder.