Ambient_air_at_20_degree_Celsius_flows_past_a_flat_plate_with_a_sharp_leading_edge_at_3_m/s._The_plate_is_heated_uniformly_throughout_its_entire_length_and_is_maintained_at_a_surface_temperature_of_40_degree_Celsius._Calculate_the_local_convective_heat_transfer_coefficient._Assume_that_transition_occurs_at_a_critical_Reynolds_number_of_500000$

Ambient_air_at_20_degree_Celsius_flows_past_a_flat_plate_with_a_sharp_

1.	Ambient_air_at_20_degree_Celsius_flows_past_a_flat_plate_with_a_sharp_leading_edge_at_3_m/s._The_plate_is_heated_uniformly_throughout_its_entire_length_and_is_maintained_at_a_surface_temperature_of_40_degree_Celsius._Calculate_the_local_convective_heat_transfer_coefficient._Assume_that_transition_occurs_at_a_critical_Reynolds_number_of_500000$
A.	4.519 k J/m<sup>2</sup> hr degree
B.	5.519 k J/m<sup>2</sup> hr degree
C.	6.519 k J/m<sup>2</sup> hr degree
D.	7.519 k J/m<sup>2</sup> hr degree
Answer» E.

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Ambient air at 20 degree Celsius flows past a flat plate with a sharp leading edge at 3 m/s. The plate is heated uniformly throughout its entire length and is maintained at a surface temperature of 40 degree Celsius. Calculate the local convective heat transfer coefficient. Assume that transition occurs at a critical Reynolds number of 500000
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AMBIENT_AIR_AT_20_DEGREE_CELSIUS_FLOWS_PAST_A_FLAT_PLATE_WITH_A_SHARP_LEADING_EDGE_AT_3_M/S._THE_PLATE_IS_HEATED_UNIFORMLY_THROUGHOUT_ITS_ENTIRE_LENGTH_AND_IS_MAINTAINED_AT_A_SURFACE_TEMPERATURE_OF_40_DEGREE_CELSIUS._CALCULATE_THE_THICKNESS_OF_THE_THERMAL_BOUNDARY_LAYER._ASSUME_THAT_TRANSITION_OCCURS_AT_A_CRITICAL_REYNOLDS_NUMBER_OF_500000?$
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