Convert calorie (IT)/second/square centimeter to watt/square centimeter Online | Free heat-flux-density Converter
Calorie (IT) per Second per Square Centimeter [cal(IT)/(s·cm²)]
The unit calorie (IT) per second per square centimeter, written as cal(IT)/(s·cm²), measures heat flux density or power per unit area. It represents the amount of International Table calories (1 cal(IT) = 4.1868 J) transferred through 1 cm² of surface every second.
This unit is often used in laboratory-scale heat transfer experiments, solar energy studies, and radiation measurements, especially when dealing with small surface areas where the calorie is convenient. Applications include:
Measuring solar energy intensity on small surfaces
Calorimetry experiments on samples
Laser or focused radiation studies
The heat flux can be expressed mathematically as:
where q is heat flux in cal(IT)/(s·cm²), Q is energy in calories, A is area in cm², and t is time in seconds.
Conversion to SI units:
While W/m² is the SI standard, cal(IT)/(s·cm²) is convenient for small-area, high-intensity heat measurements in laboratory or historical contexts.
Watt per Square Centimeter [W/cm²]
The unit watt per square centimeter (W/cm²) measures heat flux density or radiant flux, representing the amount of energy transferred per unit area per unit time, with the area measured in square centimeters. One watt equals 1 joule per second, so 1 W/cm² corresponds to 1 joule of energy passing through 1 cm² every second.
This unit is often used in high-intensity applications such as:
Laser systems measuring power density on a target
Plasma or arc discharge studies
Industrial thermal processes where energy is concentrated on small surfaces
The relationship can be expressed mathematically as:
where q is heat flux in W/cm², Q is energy in joules, A is area in cm², and t is time in seconds.
Conversion to SI units:
While W/m² is the standard SI unit for most applications, W/cm² is convenient for small-area, high-intensity measurements, such as in laboratory-scale experiments, laser technology, and materials testing, where energy is concentrated over very small surfaces.
No conversions available for heat-flux-density.