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Name three uses of limestone. Write a balanced equation for the reaction of limestone with \(\mathrm{CO}_{2}\) in water.

Short Answer

Expert verified
Limestone is used in construction, industry, and agriculture. The reaction is: \( \text{CaCO}_{3(s)} + \text{CO}_{2(g)} + \text{H}_{2}\text{O}_{(l)} \rightarrow \text{Ca(HCO}_{3})_{2(aq)} \).

Step by step solution

01

Identify Uses of Limestone

Limestone is a versatile material used in various industries. The three common uses are: 1. Construction material - Limestone is used to make cement and concrete. 2. Industrial material - It serves in the chemical industry to produce lime (CaO). 3. Agriculture - Limestone is used to neutralize acidic soils.
02

Understanding the Reaction Context

Limestone chemically known as calcium carbonate (CaCO3) can react with carbon dioxide (CO2) in the presence of water to form calcium bicarbonate. This reaction is a part of the natural carbon cycle often occurring in nature, especially in the formation of caves.
03

Write the Chemical Reaction Equation

The chemical reaction can be represented as: \(\text{CaCO}_{3(s)} + \text{CO}_{2(g)} + \text{H}_{2}\text{O}_{(l)} \rightarrow \text{Ca(HCO}_{3})_{2(aq)}\)This equation shows limestone (calcium carbonate) reacting with carbon dioxide and water to form calcium bicarbonate in aqueous solution.

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Key Concepts

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

Chemical Reaction of Limestone
Limestone, known chemically as calcium carbonate (\(\text{CaCO}_3\)), is an essential part of various chemical reactions. One key reaction occurs when limestone interacts with carbon dioxide (\(\text{CO}_2\)) and water (\(\text{H}_2\text{O}\)). This reaction creates calcium bicarbonate (\(\text{Ca(HCO}_3)_2\)). The equation for this reaction is:\[\text{CaCO}_{3(s)} + \text{CO}_{2(g)} + \text{H}_{2}\text{O}_{(l)} \rightarrow \text{Ca(HCO}_{3})_{2(aq)}\]This equation tells us that solid calcium carbonate, when combined with gaseous carbon dioxide and liquid water, forms an aqueous solution of calcium bicarbonate. This type of reaction often takes place in natural settings, particularly in cave formation, where limestone slowly dissolves due to exposure to acidic conditions. Understanding this reaction is critical in fields such as geology and environmental science, since it plays a significant role in shaping landscapes and recycling carbon.
Calcium Carbonate Reaction
Calcium carbonate is renowned for its transformative reactions, particularly its ability to engage in chemical changes with carbon dioxide. In its most prominent form, limestone, it dissolves over time when in contact with carbon dioxide and water, forming calcium bicarbonate. This process is not only essential in the natural world's geological developments but also in various human activities. For instance, in agriculture, this reaction is utilized where limestone is applied to soils to reduce acidity, improving soil health and crop yields. What’s fascinating is how calcium carbonate governs the chemistry of countless ecosystems, from fostering plant growth by counteracting acidic environments, to helping aquatic life by preventing the acidification of waters. Its ability to react makes it a cornerstone in environmental management projects aimed at maintaining ecological balance.
Carbon Cycle in Nature
The carbon cycle is a key Earth system allowing carbon to move through the atmosphere, oceans, and living organisms. Calcium carbonate plays a crucial role in this cycle, especially in a process called carbon fixation where atmospheric carbon dioxide is converted into calcium carbonate and stored in geological formations.During the carbon cycle, limestone, made of calcium carbonate, locks away carbon that is otherwise present in the atmosphere as carbon dioxide. This process is vital since it helps regulate and lower the levels of atmospheric \(\text{CO}_2\), mitigating climate change effects.Understanding the connection between limestone and the carbon cycle illuminates how this natural resource functions as both a sink for carbon and a means to cycle it across different Earth domains. By highlighting the relevance of calcium carbonate in natural carbon storage, we realize its importance in maintaining long-term ecological stability.

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Most popular questions from this chapter

When \(1.00 \mathrm{g}\) of a white solid \(\mathrm{A}\) is strongly heated, you obtain another white solid, \(\mathbf{B},\) and a gas. An experiment is carried out on the gas, showing that it exerts a pressure of \(209 \mathrm{mm}\) Hg in a \(450-\mathrm{mL}\) flask at \(25^{\circ} \mathrm{C} .\) Bubbling the gas into a solution of \(\mathrm{Ca}(\mathrm{OH})_{2}\) gives another white solid, \(\mathrm{C}\). If the white solid B is added to water, the resulting solution turns red litmus paper blue. Addition of aqueous HCl to the solution of \(\mathbf{B}\) and evaporation of the resulting solution to dryness yield 1.055 g of a white solid D. When \(\mathbf{D}\) is placed in a Bunsen burner flame, it colors the flame green. Finally, if the aqueous solution of \(\mathbf{B}\) is treated with sulfuric acid, a white precipitate, \(\mathbf{E},\) forms. Identify the reaction scheme. (IMAGE CAN'T COPY)

When palladium metal is exposed to \(\mathrm{H}_{2}\) gas, the metal become brittle because \(\mathrm{H}_{2}\) molecules dissociate and \(\mathrm{H}\) atoms fill some of the octahedral holes in the face-centered cubic lattice. To find the value of \(x\) in the formula \(\mathrm{PdH}_{x}\), you perform the following experiment: \(\mathrm{H}_{2}\) gas in a 2.25 -L flask has a pressure of \(113 \mathrm{mm}\) at \(23.0^{\circ} \mathrm{C}\). After exposing the gas to \(0.192 \mathrm{g}\) of \(\mathrm{Pd},\) the pressure is now \(108 \mathrm{mm}\) at \(23^{\circ} \mathrm{C} .\) What is the value of \(\mathrm{x}\) in \(\mathrm{PdH}_{x} ?\)

The density of lead is \(11.350 \mathrm{g} / \mathrm{cm}^{3},\) and the metal crystallizes in a face-centered cubic unit cell. Estimate the radius of a lead atom.

Elemental silicon is oxidized by \(\mathrm{O}_{2}\) to give unknown A. Compound \(A\) is dissolved in molten \(\mathrm{Na}_{2} \mathrm{CO}_{3}\) giving \(\mathrm{B}\). When \(\mathrm{B}\) was treated with aqueous hydrochloric acid, \(\mathrm{C}\) is produced. Identify compound C. (a) \(\mathrm{SiH}_{4}\) (b) \(\mathrm{H}_{4} \mathrm{SiO}_{4}\) (c) \(\mathrm{SiO}_{2}\) (d) \(\operatorname{sicl}_{4}\)

A In \(1937,\) R. Schwartz and M. Schmiesser prepared a yellow-orange bromine oxide \(\left(\mathrm{BrO}_{2}\right)\) by treating \(\mathrm{Br}_{2}\) with ozone in a fluorocarbon solvent. Many years later, J. Pascal found that, on heating, this oxide decomposed to two other oxides, a less volatile golden yellow oxide (A) and a more volatile deep brown oxide (B). Oxide B was later identified as \(\mathrm{Br}_{2} \mathrm{O}\). To determine the formula for oxide \(\mathbf{A},\) a sample was treated with sodium iodide. The reaction liberated iodine, which was titrated to an equivalence point with \(17.7 \mathrm{mL}\) of \(0.065 \mathrm{M}\) sodium thiosulfate. \(\mathrm{I}_{2}(\mathrm{aq})+2 \mathrm{S}_{2} \mathrm{O}_{3}^{2-}(\mathrm{aq}) \rightarrow 2 \mathrm{I}^{-}(\mathrm{aq})+\mathrm{S}_{4} \mathrm{O}_{6}^{2-}(\mathrm{aq})\) Compound A was also treated with AgNO \(_{3}\), and \(14.4 \mathrm{mL}\) of \(0.020 \mathrm{M} \mathrm{AgNO}_{3}\) was required to completely precipitate the bromine from the sample. (a) What is the formula of the unknown bromine oxide \(\mathbf{A} ?\) (b) Draw Lewis structures for \(\mathrm{A}\) and \(\mathrm{Br}_{2} \mathrm{O}\). Speculate on their molecular geometry.

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