When is it correct to use \(\mathrm{cm}^{3}\) instead of \(\mathrm{mL}\) ? Explain.

Cubic centimeters (cm^3 or cc) are a common unit of volume that you will encounter in scientific and technical fields. As each side of this cube measures one centimeter, imagine a tiny cube that could fit on the tip of your finger; that's the physical representation of a cubic centimeter.

In practice, cubic centimeters are most often used when describing the volume of solid objects. For instance, if you're measuring the size of a small box or the displacement of a car's engine, cubic centimeters can offer a precise volume measurement. This unit is also handy when dealing with 3D shapes that have their dimensions provided in centimeters, facilitating direct computation without conversions.

Milliliters (mL) are equally significant in volume measurement, particularly when it comes to liquids. As part of the International System of Units (SI), milliliters provide a connection to the base unit of liter, which is more broadly applied for liquid volumes.

The milliliter is useful and prevalent in our daily lives—whether it's for cooking, where we measure ingredients, or in the medical field, where precise dosages of medication are crucial. A milliliter represents a volume equal to the space inside a cube that measures 1 centimeter on each side, which is fascinatingly the same physical space as a cubic centimeter. This dual representation emphasizes the versatility of volume measurement in different contexts.

Scientific measurement is a cornerstone of experimentation and innovation, requiring accuracy, precision, and a standard system understood across the globe. It involves the systematic and repeatable quantification of properties and phenomena using defined units of measurement.

The adherence to such standards enables scientists and engineers to communicate findings without ambiguity. Volume measurement is just one aspect of this meticulous process, where units like cubic centimeters and milliliters are applied according to the nature of the substance (solid or liquid) and the context (technical or everyday use).

The metric system, a global standard for measurement, defines units like cubic centimeters and milliliters, facilitating uniformity and ease of understanding. Developed during the French Revolution, this system is based on multiples of 10, making calculations more straightforward than those required by the Imperial or US customary systems.

Cubic centimeters and milliliters are integral parts of this system, representing volume for solids and liquids respectively. The metric system is built on base units such as meters for length, kilograms for mass, and seconds for time, with all other units being multiples or fractions of these. Understanding the metric system is essential for engaging with the disciplines of science and engineering, which are rich with measurements and calculations.