Kelvin is the temperature scale most commonly used in science, and there are good reasons for this preference. Unlike Celsius and Fahrenheit, Kelvin starts at absolute zero, the point where all particle motion stops. This makes Kelvin a precise and universal scale for scientific measurements.

One reason scientists prefer Kelvin is that it avoids negative numbers. Celsius and Fahrenheit can have temperatures below zero, which can complicate calculations. Kelvin provides a continuous scale starting from zero, making it easier to work with formulas and scientific data.

Kelvin is also essential when dealing with extreme temperatures. In fields like astronomy, physics, and chemistry, temperatures can be very high or extremely low. Using Kelvin ensures that all measurements are consistent and comparable worldwide.

Another reason is standardization. Scientific publications, international experiments, and technical specifications use Kelvin as the accepted unit. This allows scientists from different countries to communicate and interpret data without confusion.

Finally, Kelvin links directly to fundamental physical principles. It reflects the absolute energy of particles, making it ideal for experiments and calculations that require precision. For these reasons, Kelvin remains the preferred choice in scientific and technical fields.