Answer
Verified
459.3k+ views
Hint:
We have different industrial manufacturing processes for different compounds including ${\rm{NaOH}}$. The process becomes more useful if the by-products can also be of further use.
Complete step by step solution
We can define sodium hydroxide as a strong base being a hydroxide of an alkali metal. The chemical formula is ${\rm{NaOH}}$. It has varied applications including being used in the manufacturing of soap, detergents, paper and many other different chemicals; it is also used in petroleum refining, in laboratories, or in the purification of aluminum ore, bauxite and many more. This has led to manufacturing of ${\rm{NaOH}}$ on industrial scale.
The industrial manufacturing process for ${\rm{NaOH}}$ involves electrolysis of brine which is basically common salt dissolved in water. The process is known as chlor-alkali process. We will get a better understanding about the suitability of this name after going through the process briefly.
Brine is basically $NaCl\left( {aq} \right)$ and its electrolysis leads to its decomposition for which the chemical reaction can be written as follows:
\[2NaCl\left( {aq} \right) + 2{H_2}O\left( l \right) \to 2NaOH\left( {aq} \right) + C{l_2}\left( g \right) + {H_2}\left( g \right)\]
As it is evident that during manufacturing of ${\rm{NaOH}}$ that it is an alkali, \[C{l_2}\] gas is also produced as a by-product giving the name chlor-alkali to the process. So, we can infer that $X$ is \[C{l_2}\].
Now, as it is given that \[C{l_2}\] reacts with lime water for which we have chemical formula $Ca{\left( {OH} \right)_2}$ and the reaction between the two can be shown by the following chemical equation:
\[C{l_2}\left( g \right) + Ca{\left( {OH} \right)_2}\left( {aq} \right) \to CaOC{l_2}\left( {aq} \right) + {H_2}O\left( l \right)\]
We know that \[CaOC{l_2}\] is called bleaching powder for its bleaching properties. So, we can say that $Y$ is \[CaOC{l_2}\].
Note:
Here, we have one more by-product, \[{H_2}\left( g \right)\] but we have to frame our answer by considering the further related reactions as well which are given by \[C{l_2}\] not \[{H_2}\].
We have different industrial manufacturing processes for different compounds including ${\rm{NaOH}}$. The process becomes more useful if the by-products can also be of further use.
Complete step by step solution
We can define sodium hydroxide as a strong base being a hydroxide of an alkali metal. The chemical formula is ${\rm{NaOH}}$. It has varied applications including being used in the manufacturing of soap, detergents, paper and many other different chemicals; it is also used in petroleum refining, in laboratories, or in the purification of aluminum ore, bauxite and many more. This has led to manufacturing of ${\rm{NaOH}}$ on industrial scale.
The industrial manufacturing process for ${\rm{NaOH}}$ involves electrolysis of brine which is basically common salt dissolved in water. The process is known as chlor-alkali process. We will get a better understanding about the suitability of this name after going through the process briefly.
Brine is basically $NaCl\left( {aq} \right)$ and its electrolysis leads to its decomposition for which the chemical reaction can be written as follows:
\[2NaCl\left( {aq} \right) + 2{H_2}O\left( l \right) \to 2NaOH\left( {aq} \right) + C{l_2}\left( g \right) + {H_2}\left( g \right)\]
As it is evident that during manufacturing of ${\rm{NaOH}}$ that it is an alkali, \[C{l_2}\] gas is also produced as a by-product giving the name chlor-alkali to the process. So, we can infer that $X$ is \[C{l_2}\].
Now, as it is given that \[C{l_2}\] reacts with lime water for which we have chemical formula $Ca{\left( {OH} \right)_2}$ and the reaction between the two can be shown by the following chemical equation:
\[C{l_2}\left( g \right) + Ca{\left( {OH} \right)_2}\left( {aq} \right) \to CaOC{l_2}\left( {aq} \right) + {H_2}O\left( l \right)\]
We know that \[CaOC{l_2}\] is called bleaching powder for its bleaching properties. So, we can say that $Y$ is \[CaOC{l_2}\].
Note:
Here, we have one more by-product, \[{H_2}\left( g \right)\] but we have to frame our answer by considering the further related reactions as well which are given by \[C{l_2}\] not \[{H_2}\].
Recently Updated Pages
10 Examples of Evaporation in Daily Life with Explanations
10 Examples of Diffusion in Everyday Life
1 g of dry green algae absorb 47 times 10 3 moles of class 11 chemistry CBSE
What happens when dilute hydrochloric acid is added class 10 chemistry JEE_Main
What is the meaning of celestial class 10 social science CBSE
What causes groundwater depletion How can it be re class 10 chemistry CBSE
Trending doubts
Fill the blanks with the suitable prepositions 1 The class 9 english CBSE
Which are the Top 10 Largest Countries of the World?
How do you graph the function fx 4x class 9 maths CBSE
Differentiate between homogeneous and heterogeneous class 12 chemistry CBSE
Difference between Prokaryotic cell and Eukaryotic class 11 biology CBSE
Change the following sentences into negative and interrogative class 10 english CBSE
The Equation xxx + 2 is Satisfied when x is Equal to Class 10 Maths
Why is there a time difference of about 5 hours between class 10 social science CBSE
Give 10 examples for herbs , shrubs , climbers , creepers