Carbonic acid occurs in carbonated beverages. When allowed to react with lithium hydroxide it produces lithium carbonate. Lithium carbonate is used to treat depression and bipolar disorder. Write chemical formulas for carbonic acid, lithium hydroxide, and lithium carbonate.

Short Answer

Expert verified
The chemical formulas for carbonic acid, lithium hydroxide, and lithium carbonate are as follows: Carbonic acid is H₂CO₃, lithium hydroxide is LiOH, and lithium carbonate is Li₂CO₃.

Step by step solution

01

Chemical formula for carbonic acid

Carbonic acid is formed when carbon dioxide (CO₂) is dissolved in water (H₂O). Its chemical formula is H₂CO₃. The acidic hydrogen atom (H) combines with the oxygen (O) from water, while the carbon (C) and oxygen (O) from carbon dioxide form the polyatomic carbonate ion (CO₃²⁻). The resulting formula is: H₂CO₃
02

Chemical formula for lithium hydroxide

Lithium is represented by the symbol Li and has a charge of +1. Hydroxide, a polyatomic ion, consists of one oxygen atom (O) and one hydrogen atom (H) and carries a -1 charge (OH⁻). To form the compound, lithium (Li⁺) and hydroxide (OH⁻) ions must combine in equal amounts to balance their charges. Hence, the chemical formula for lithium hydroxide is: LiOH
03

Chemical formula for lithium carbonate

Lithium carbonate is formed when lithium hydroxide combines with carbonic acid. As mentioned earlier, lithium has a charge of +1 (Li⁺) and carbonate is a polyatomic ion with a charge of -2 (CO₃²⁻). To form a neutral compound, we need to balance the charges. Since 1 lithium ion with a charge of +1 is needed to balance the -2 charge of the carbonate ion, we need 2 lithium ions. Therefore, the chemical formula for lithium carbonate is: Li₂CO₃

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Key Concepts

These are the key concepts you need to understand to accurately answer the question.

Understanding Carbonic Acid
Carbonic acid plays a significant role in our everyday life, most notably in the fizz of carbonated beverages. Formally, carbonic acid is the result of carbon dioxide gas (\( CO_2 \)) dissolving in water (\( H_2O \)). This aqueous solution forms a weak acid, known scientifically as carbonic acid (\( H_2CO_3 \)). Its formation is crucial in many biological and geological processes as well.

The process can be described as follows: When \( CO_2 \) mixes with \( H_2O \), they react to form \( H_2CO_3 \). This chemical reaction is also vital for maintaining the pH balance in blood and in the formation of bicarbonate in our bodies, which is essential for buffering acids.

As a weak acid, carbonic acid donates a hydrogen ion (\( H^+ \)) to other substances, which is a key characteristic in acid-base chemistry. In industrial settings, the balance between \( CO_2 \), \( H_2O \), and \( H_2CO_3 \) helps control the pH level of various solutions, which is important for processes such as fermentation and the production of soft drinks.
Delving into Lithium Hydroxide
Lithium hydroxide (\( LiOH \)) is a white, crystalline substance commonly used in industrial applications, such as the purification of gases, and as a reactant in the production of other lithium compounds.

It consists of a lithium ion (\( Li^+ \)) and a hydroxide ion (\( OH^- \)), which together form an ionic compound. In an aqueous solution, lithium hydroxide can act as a strong base, which means it readily accepts hydrogen ions. This characteristic allows it to neutralize acids, which is why it reacts with carbonic acid to form lithium carbonate in our textbook example.

The use of lithium hydroxide is not limited to industrial reactions; it also plays a crucial role in life support systems for space missions, such as being used in scrubbers to remove carbon dioxide from the air, ensuring astronauts can breathe without excess \( CO_2 \) buildup.
Exploring Lithium Carbonate
Lithium carbonate (\( Li_2CO_3 \)) is a salt derived from lithium and carbonate ions. It is particularly well-known for its medicinal use in the treatment of mood disorders, like bipolar disorder and depression.

The compound is formed by the reaction between lithium hydroxide and carbonic acid, which we have addressed in our exercise. The lithium ion (\( Li^+ \)), with a positive charge, combines with the carbonate ion (\( CO_3^{2-} \)), which carries a negative charge, resulting in a stable ionic compound with the formula \( Li_2CO_3 \).

In addition to its medicinal purposes, lithium carbonate is also used industrially. It is employed in the manufacture of ceramics, glass, and aluminum. Its unique chemical and physical properties are instrumental in improving the quality and durability of these materials. Understanding the reactions that produce lithium carbonate is pivotal, not just in chemistry but also in various industries and healthcare fields.

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Most popular questions from this chapter

Because many ions and compounds have very similar names, there is great potential for confusing them. Write the correct chemical formulas to distinguish between (a) calcium sulfide and calcium hydrogen sulfide, (b) hydrobromic acid and bromic acid, (c) aluminum nitride and aluminum nitrite, (d) iron(II) oxide and iron(III) oxide, (e) ammonia and ammonium ion, (f) potassium sulfite and potassium bisulfite, (g) mercurous chloride and mercuric chloride, (h) chloric acid and perchloric acid.

Determine the molecular and empirical formulas of the following: (a) the organic solvent benzene, which has six carbon atoms and six hydrogen atoms; (b) the compound silicon tetrachloride, which has a silicon atom and four chlorine atoms and is used in the manufacture of computer chips; (c) the reactive substance diborane, which has two boron atoms and six hydrogen atoms; (d) the sugar called glucose, which has six carbon atoms, twelve hydrogen atoms, and six oxygen atoms.

Complete the table by filling in the formula for the ionic compound formed by each pair of cations and anions, as shown for the first pair. $$ \begin{array}{|l|c|c|c|c|} \hline \text { Ion } & \mathrm{K}^{+} & \mathrm{NH}_{4}^{+} & \mathrm{Mg}^{2+} & \mathrm{Fe}^{3+} \\ \hline \mathrm{Cl}^{-} & \mathrm{KCl} & & & \\ \hline \mathrm{OH}^{-} & & & & \\ \hline \mathrm{CO}_{3}^{2-} & & & & \\ \hline \mathrm{PO}_{4}{ }^{3-} & & & & \\ \hline \end{array} $$

Using a suitable reference such as the CRC Handbook of Chemistry and Physics or http://www.webelements.com, look up the following information for nickel: (a) the number of known isotopes, (b) the atomic masses (in amu) and (c) the natural abundances of the five most abundant isotopes.

What can we tell about a compound when we know the empirical formula? What additional information is conveyed by the molecular formula? By the structural formula? Explain in each case.

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