It depends on which type of bond. If it is a covalent bond they will share electrons, and if its an ionic bond the atom with the lesser amount of electrons will transfer them to the other atom.
Once two atoms exchange electrons, they become ions. One atom becomes positively charged (cation) as it loses electrons, while the other becomes negatively charged (anion) as it gains electrons. This attraction between the oppositely charged ions results in the formation of an ionic bond.
the co-ordinate co-valent bond is different in that the bonding pair comes from only one of the atoms called the donor atom. The other atom, the acceptor atom, simply accepts the sharing responsibilities. An example of such a bond is as follows: NH3 + H+ ------> NH3--->H+
There are many different types of bonds in the Hydrocarbon family. The most common is Alkane, where Carbon atoms link only once between other Carbon atoms. The formula for an Alkane is CnH(2n+2), where n is the number of Carbon atoms. There are also Alkenes wherein one pair of Carbon atoms have a double bond, but the rest have only single bonds. This formula is CnH(2n). Another common Hydrocarbon is the Alkyne. In an Alkyne, one pair of Carbon atoms share a triple bond. For an Alkyne, the formula is CnH[n+(n-2)]. Here are some examples. Alkane: C3H8 Alkene: C3H6 Alkyne: C3H4 The suffix of the element tells us the bonds that the Carbon atoms share. -ane: single bond, -ene: double bond, -yne: triple bond. The prefix of the element tells us how many Carbon atoms bond in this way.
A fourth covalent bond is not formed because atoms are limited in the number of electrons they can share to achieve stability. In most cases, atoms are most stable when they have a full outer electron shell, typically with 8 electrons (octet rule). Once an atom has formed three covalent bonds, it usually has achieved a full outer shell and does not need to form a fourth bond.
When H+ forms a bond with H2O to form H3O+ the extra bond to oxygen is sometimes called a coordinate covalent bond (alternative name dative bond ) as both electrons that form the bond originate on the oxygen. Once formed the bond is identical to the other two covalent bonds.
Once two atoms exchange electrons, they become ions. One atom becomes positively charged (cation) as it loses electrons, while the other becomes negatively charged (anion) as it gains electrons. This attraction between the oppositely charged ions results in the formation of an ionic bond.
Carbon can form a maximum of four covalent bonds with other atoms, including hydrogen, oxygen, nitrogen, and other carbon atoms. This tetravalency allows carbon to bond with a maximum of four other atoms in organic compounds. However, in larger or more complex structures, carbon can participate in bonding with multiple carbon atoms, resulting in larger networks or chains. Thus, while a single carbon atom can bond with four atoms at once, the total number of atoms in a compound can be much higher.
The closest would be a covalent bond; however, metals do not really have bonds, but rather a 'sea of electrons' that all the metal atoms share at once, hence their general malleability as a group.
the co-ordinate co-valent bond is different in that the bonding pair comes from only one of the atoms called the donor atom. The other atom, the acceptor atom, simply accepts the sharing responsibilities. An example of such a bond is as follows: NH3 + H+ ------> NH3--->H+
b)a coordinate covalent bond is a covalent bond in which one atom contributes both bonding electrons, In a coordinate covalent bond, the shared electron pair comes from one of the bonding atoms. Once formed, a coordinate covalent bond is like any other covalent bond
it gets made into new things
If the hydrogen atoms get close enough together, and hot enough, they will eventually fuse into helium. This is what happens inside stars.
When electrons hit atoms at high speed some of the electrons are knocked away or broken off of the atoms. Once this breakage happens after impact, the atom then becomes a positively charged ion.
no they are made out of atoms which makes every thing so once again no
There are many different types of bonds in the Hydrocarbon family. The most common is Alkane, where Carbon atoms link only once between other Carbon atoms. The formula for an Alkane is CnH(2n+2), where n is the number of Carbon atoms. There are also Alkenes wherein one pair of Carbon atoms have a double bond, but the rest have only single bonds. This formula is CnH(2n). Another common Hydrocarbon is the Alkyne. In an Alkyne, one pair of Carbon atoms share a triple bond. For an Alkyne, the formula is CnH[n+(n-2)]. Here are some examples. Alkane: C3H8 Alkene: C3H6 Alkyne: C3H4 The suffix of the element tells us the bonds that the Carbon atoms share. -ane: single bond, -ene: double bond, -yne: triple bond. The prefix of the element tells us how many Carbon atoms bond in this way.
A fourth covalent bond is not formed because atoms are limited in the number of electrons they can share to achieve stability. In most cases, atoms are most stable when they have a full outer electron shell, typically with 8 electrons (octet rule). Once an atom has formed three covalent bonds, it usually has achieved a full outer shell and does not need to form a fourth bond.
Energy is stored in chemical bonds through the arrangement of atoms and the sharing or transfer of electrons within molecules. When chemical bonds are formed, energy is either released or absorbed depending on the type of bond and the elements involved. This stored energy can be released through chemical reactions to fuel processes in living organisms.