Stoichiometry is very important in forensic science. It helps scientists understand the evidence found at crime scenes. Here’s a simple breakdown of how it works:
Chemical Reactions: Forensic scientists look at different substances found at crime scenes, like drugs or poisons. By studying the stoichiometry, which is the math of chemical reactions, they can figure out how much of each substance is involved.
Molecular Ratios: They use something called molar ratios from balanced chemical equations. This helps them determine how much of a substance was present. This information can connect suspects to the crimes.
Reaction Completion: Forensic scientists can also find out if a chemical reaction happened completely. They use stoichiometric calculations for this, which gives clues about how the crime was committed.
In the end, stoichiometry helps turn evidence into clear conclusions!
Stoichiometry is very important in forensic science. It helps scientists understand the evidence found at crime scenes. Here’s a simple breakdown of how it works:
Chemical Reactions: Forensic scientists look at different substances found at crime scenes, like drugs or poisons. By studying the stoichiometry, which is the math of chemical reactions, they can figure out how much of each substance is involved.
Molecular Ratios: They use something called molar ratios from balanced chemical equations. This helps them determine how much of a substance was present. This information can connect suspects to the crimes.
Reaction Completion: Forensic scientists can also find out if a chemical reaction happened completely. They use stoichiometric calculations for this, which gives clues about how the crime was committed.
In the end, stoichiometry helps turn evidence into clear conclusions!