Related Resources: heat transfer
Heat Gain from Typical Electric Motors
Heat Transfer Engineering and Design
Heat Gain from Typical Electric Motors
Electric motors create heat energy that may need to be managed in an industrial system. For example, the heat load may be additive in an HVAC system of an enclosure with additional heat energy producing components
Motor Rated, kW |
Motor Type |
Nominal rpm |
Full Load Motor Efficiency, % |
Location of Motor and Driven Equipment with Respect to Conditioned Space or Airstream |
||
A |
B |
C |
||||
Motor in, Driven Equipment in, W |
Motor out, Driven Equipment in, W |
Motor in, Driven Equipment out, W |
||||
0.04 |
Shaded pole |
1500 |
35 |
105 |
35 |
70 |
0.06 |
35 |
170 |
59 |
110 |
||
0.09 |
35 |
264 |
94 |
173 |
||
0.12 |
35 |
340 |
117 |
223 |
||
0.19 |
Split phase |
1750 |
54 |
346 |
188 |
158 |
0.25 |
56 |
439 |
246 |
194 |
||
0.37 |
60 |
621 |
372 |
249 |
||
0.56 |
3-Phase |
1750 |
72 |
776 |
557 |
217 |
0.75 |
75 |
993 |
747 |
249 |
Related:
- Overall Heat Transfer Coefficient Table Charts and Equation
- Combined Overall Heat Transfer Coefficient Equation
- Convective Heat Transfer Coefficient - Heat Transfer
- Convective Heat Transfer Coefficients Table Chart
- Round Duct Heat Transfer Coefficient Wall Temperature Heat Transfer Equation and Calculator
- Overall Heat Transfer Coefficient Table Chart
- Overall Heat Transfer Coefficient Across Heat Exchanger Tubes Equation
Derived from resources provided by:
ASHRAE Pocket Guide for HVAC, 2013