The question is not very specific, so there is more than just one answer, but I'm assuming you are referring to a radical bromination of an alkane (ethane) versus an electrophilic bromination of an alkene (ethene).
Br2 in the presence of a radical initiator (such as light or heat) will add to ethane to form 2-bromoethane as the major product in a radical mechanism. This goes through an initiation step (forming 2 bromine radicals), followed by propagation to the alkane (forming a secondary ethyl radical), followed by a termination step. The termination step leading to the product is one where another bromine radical joins with the ethyl radical.
In the absence of light or heat, bromine cannot react with an alkane, but it can react as an electrophile with an alkene. In this type of reaction (electrophilic addition to an alkene), the ∏-bond (double bond) on ethene attacks a bromine atom (from Br2) and kicks out a bromide (Br-). The bromine that was just added forms two bonds (one on each carbon of the double bond), giving a three-membered C-Br-C ring called a bromonium ion (since the bromine atom now has a positive charge). The bromide that left before can now attack the backside of the bromonium ion, opening the 3-membered ring, and adding anti to form a dibromoalkane (1,2-dibromoethane in this example). This reaction is stereospecific because in the major product the bromine atoms will always add anti (to the opposite side) on the alkene.
The chemical equation is:C2H2 + 2 Br2 = C2Br2H4
When hexene decolourises bromine in carbon tetrachloride, an addition reaction occurs. The double bond in hexene reacts with bromine, resulting in the formation of a vicinal dibromide. This reaction leads to the loss of the characteristic reddish-brown color of bromine, indicating that the bromine has been consumed in the reaction.
Bromine Pentachloride is the name of BrCI5.
The chemical reaction is:2 HI + Br2 = 2 HBr + I2
The reaction between bromine and aqueous strontium iodide is a double displacement reaction. Bromine replaces iodide in strontium iodide, forming strontium bromide and iodine. The balanced chemical equation is: Br2 + SrI2 --> SrBr2 + I2.
The chemical equation is:C2H4 + Br2 = C2H4Br2
The chemical reaction is:C2H2 + Br2 = CHBr=CHBr
Any reaction occur between neon and bromine.
The balanced chemical equation for the reaction between bromine and sodium thiosulfate is: 2Na2S2O3 + Br2 → 2NaBr + Na2S4O6. This reaction is often used in titrations to determine the concentration of bromine in a solution.
The chemical equation is:C2H2 + 2 Br2 = C2Br2H4
When hexene decolourises bromine in carbon tetrachloride, an addition reaction occurs. The double bond in hexene reacts with bromine, resulting in the formation of a vicinal dibromide. This reaction leads to the loss of the characteristic reddish-brown color of bromine, indicating that the bromine has been consumed in the reaction.
The chemical equation for the reaction between toluene and bromine (Br) is C6H5CH3 + Br2 → C6H5CH2Br + HBr. This reaction is an electrophilic aromatic substitution where one of the hydrogens on the benzene ring is replaced by a bromine atom.
The chemical formula for aluminum metal is Al. The chemical formula for diatomic bromine is Br2. The balanced chemical equation for the reaction between aluminum and diatomic bromine to form aluminum bromide is: 2Al + 3Br2 -> 2AlBr3.
Aluminium metal reacts with bromine gas to form aluminium tribromide. 2Al + 3Br2 ==> 2AlBr3
Bromine attacks triolein at three places where double bonds exist in the structure, causing saturated molecule. The equation for the reaction of triolein with bromine is C57 H104 06 + 3 Br2 --> C57 H104 06 Br6.
potassium
The balanced chemical equation for the reaction between chlorine (Cl2) and bromine (Br2) is: Cl2 + Br2 -> 2ClBr