Heat transfer coefficient Converter
Popular Heat-transfer-coefficient Conversions
- watt per square meter-kelvin to btu per hour-square foot-fahrenheit
- calorie per second-square centimeter-celsius to watt per square meter-kelvin
Complete List of Heat-transfer-coefficient Units
All available heat-transfer-coefficient units for conversion:
- watt per square meter-kelvin [W/(m²⋅K)]
- 1 watt per square meter-celsius [W/(m²⋅°C)] = 1 watt per square meter-kelvin [W/(m²⋅K)]
- 1 BTU per hour-square foot-fahrenheit [BTU/(h⋅ft²⋅°F)] = 5.6782634 watt per square meter-kelvin [W/(m²⋅K)]
- 1 calorie per second-square centimeter-celsius [cal/(s⋅cm²⋅°C)] = 41840 watt per square meter-kelvin [W/(m²⋅K)]
- 1 kilowatt per square meter-kelvin [kW/(m²⋅K)] = 1000 watt per square meter-kelvin [W/(m²⋅K)]
- 1 watt per square meter-kelvin [W/(m²⋅K)] = 1000 milliwatt per square meter-kelvin [mW/(m²⋅K)]
- 1 watt per square centimeter-kelvin [W/(cm²⋅K)] = 10000 watt per square meter-kelvin [W/(m²⋅K)]
- 1 watt per square inch-kelvin [W/(in²⋅K)] = 1549.907 watt per square meter-kelvin [W/(m²⋅K)]
- 1 BTU per second-square foot-fahrenheit [BTU/(s⋅ft²⋅°F)] = 20441.748 watt per square meter-kelvin [W/(m²⋅K)]
- 1 kilocalorie per hour-square meter-celsius [kcal/(h⋅m²⋅°C)] = 1.1622222 watt per square meter-kelvin [W/(m²⋅K)]
- 1 BTU per minute-square foot-fahrenheit [BTU/(min⋅ft²⋅°F)] = 3406.958 watt per square meter-kelvin [W/(m²⋅K)]
- 1 calorie per minute-square centimeter-celsius [cal/(min⋅cm²⋅°C)] = 69.733333 watt per square meter-kelvin [W/(m²⋅K)]
Heat Transfer Coefficient
Heat transfer coefficient quantifies convective heat transfer between surface and fluid. Essential for HVAC design and heat exchanger optimization.
Convection Basics
Heat transfer coefficient (h) in W/(m²·K) or BTU/(hr·ft²·°F). Depends on fluid properties, flow conditions, and surface geometry.
Natural vs. Forced
Natural convection: 2-25 W/(m²·K), Forced convection: 25-250 W/(m²·K), Boiling: 2500-100000 W/(m²·K). Huge range by mechanism.
Design Applications
Higher coefficients mean better heat transfer. Fans and pumps increase coefficients by forcing fluid flow across surfaces.
Common Applications
HVAC system design, heat exchanger optimization, electronics cooling, building energy modeling, and industrial process design.
Conversion Tips
Forced convection much more effective than natural. Turbulent flow increases heat transfer but requires more pumping power.