Fluorine can steal an electron easier than oxygen. This is because fluorine has a higher electronegativity value than oxygen, making it more efficient at attracting electrons.
Magnesium can burn in the absence of elemental oxygen, yes. This is because it is such a strong reducing agent that it can essentially steal oxygen from substances such as water and carbon dioxide.
The oxygen, nitrogen, and fluorine groups love to steal electrons from other elements, making them negatively charged ions, whereas most metals up to the carbon group like to give away electrons, making them positively charged ions. I hope that's what you were asking.
An atom of iodine will most likely gain one electron to form a stable octet in its outer energy level. This will give iodine a full set of 8 electrons, making it more stable and less likely to react with other atoms.
The main reason for this is because, within the triple bond there is a high concentration of electrons. Therefore, electrophillic elements like oxygen will be attracted to the bond. These elements can steal electrons from the bond and form a related compound. Better answers will probably follow, but this is a start at least.
In hydrogen chloride gas, the electronegativity of chlorine is not enough to completely steal the electron from hydrogen. This highly polar molecule disassociates in water, however, and they are no longer bonded.
Under normal circumstances, no. However, in some cases a different oxidizer may be used in place of oxygen. Substances such as fluorine and potassium nitrate can oxidize materials just as well s elemental oxygen can. Some highly reactive metals such as magnesium and lithium can "steal" oxygen from water or carbon dioxide.
Yes it would if it did not manage to steal an electron from any other atom it may have come into contact along its path.
Magnesium can burn in the absence of elemental oxygen, yes. This is because it is such a strong reducing agent that it can essentially steal oxygen from substances such as water and carbon dioxide.
oxygen and carbon in the air
Electronegativity is an atoms relative ability to remove an electron pair in the formation of a covalent bond. I.e. an atoms ability to steal a pair of electrons from the outer ring of another atom to make a covalent bond, (like a contract to share electons in order to fill there outer shells and become stable) Across the periodic table (left to right) this gets harder to do due to an increase in attraction forces between the nuclear charge and the outer electons. Therefore across the periodic table 'more' electronegativity energy is required to remove those electrons. Down the periodic table, from top to bottom attraction forces between the electrons in the outer shell and the central nuclear charge decreases (shielding effect of sub levels and increased atomic radius), this make it easier for the electrons to be stolen, so there is less electronegativity required. Fluorine is the highest and furthest to the right, making it the most electronegative. (Helium and Neon etc have full outer shells so arent involved in covalent bonds)
Non metals are likely to steal electron. They form anions.
An ionic bond.
Oxygen is a really strong oxidizing agent, meaning it's really greedy with electrons. It really wants to become stable like the noble gases, who have completely filled electron shells. The only way to get electrons is to oxidize other elements and steal their electrons. That's why oxygen is so reactive.
A neutral atom is uncharged. An ion is an atom with a charge. For an atom to become charged it must lose or gain one [or more] electrons. A substance can appear in its ionic form only after it is dissolved in water. This is called an aqueous solution. For example, LiF = Li+1(aq) and F-1(aq). A neutral fluorine atom contains {10 neutrons & } 9 protons and 9 electrons. It shares the Group VII A Periodic Classification , the Halogens , with chlorine, bromine, iodine and 3 others. This Group forms negative ions. Its members are (in terms of chemical bonding) HAPPIEST when they accept an electron, seeking to create a [shared pairing of electrons] chemical bond and become neutrally bound to an atom that is (in water) a positive ion. The most common occurrence of Halogen (-ve 1) chemical bonding is with the Group I A elements , the Alkali metals (+ve 1) , lithium, sodium and potassium being the first three of the Group. Any combination of elements of these two Groups are commonly known as the salts. So the fluorine atom in question, as a solid, shares its crystalline form with either a Group I A or Group II A atom. The first thing that happens to the atom after it is mixed with water is that it becomes an ion. After this, Fluorine -1 (aq) is available to accept one electron from any atom that has one to spare, forming a shared-electron chemical bond.
Because you doesn't speak English good
DCPIP acts as an electron acceptor of a Hill Reacton. In this way, it "steals" electrons.
You can't steal first base. It's easier to steal second base off of a right handed pitcher because the right handed pitcher has his back to the runner on first, and therefore has a harder time trying to pick the runner off.