How is Stiochmetry or anything that has to do with quantities in chemical reaction used in everyday like except for making cakes?

Have you ever adjusted a carburetor? Have you ever smoked BBQ (note that air vent).

Every chemical reaction involves definite mole ratios. That is the meaning of stoichiometry. A baking cake involves several complex chemical changes with precise mole ratios of reactants and products to each other. That is difficult to show and has little to do with the proportions of ingredients in the recipe.

The chemical reactions in our body and other living organisms, are stoichiometric but it would not be easy to show it. Combustion in a furnace, a stove, or a car engine involves precise ratios of oxygen to fuel to release the most energy. That is a little easier to show.

Stoichiometry, or the study of quantities in chemical reactions, is a fundamental concept in chemistry that has numerous applications in everyday life beyond just baking cakes. Here are a few examples:

1. Medicine and Pharmacy: Stoichiometry plays a crucial role in drug development and dosage calculations. Pharmaceutical chemists use stoichiometry to determine the precise quantities of reactants needed to synthesize drugs. Additionally, pharmacists rely on stoichiometry to calculate proper dosages for patients based on their weight, age, and the concentration of the drug.

2. Environmental Science: Stoichiometry is utilized in various environmental processes. For instance, in wastewater treatment, chemists employ stoichiometric calculations to determine the exact amount of chemicals required to remove pollutants effectively. Similarly, understanding stoichiometry helps in analyzing air pollution and estimating the correct dosages of chemicals for air purification processes.

3. Energy Production: The stoichiometry of combustion reactions is vital for generating energy. When fuel reacts with oxygen, a specific quantity of energy is released. Understanding stoichiometry allows us to determine the fuel-to-oxygen ratio needed to maximize energy production. This concept is applied in combustion engines, power plants, and even in the production of alternative fuels like biofuels.

4. Forensics: Stoichiometry is employed in forensic science to analyze crime scene evidence, such as blood samples, drugs, and toxic substances. Through stoichiometric calculations, forensic scientists can identify and quantify the chemical components in these samples, which aids in investigations and court cases.

5. Environmental Impact Assessment: Stoichiometry is used to evaluate the environmental impact of industrial processes and chemical reactions. By understanding the quantities and ratios of reactants and products, researchers can predict and mitigate any harmful environmental effects resulting from these processes.

To delve deeper into these applications and expand your understanding, you can refer to chemistry textbooks, online resources, or take courses in chemistry or related fields.