The arrangement shown is to be used to calibrate a heat flux gage. The gage has a black surface that is 10mm in diameter and is maintained at 17°C by means of a water-cooled hacking plate. The heater. 200 mm in diameter, has a black surface that is maintained at 800 K and is located 0.5 m from the gage. The surroundings and the air are at 27°C and the convection heat transfer coefficient between the gage and the air is 15 W/m 2 ⋅ K . (a) Determine the net radiation exchange between the heater and the gage. (b) Determine the net transfer of radiation to the gage per unit area of the gage. (c) What is the net heat transfer rate lo the gage per unit area of the gage? (d) If the gage is constructed according to the description of Problem 3.107, what heat flux will it indicate?
The arrangement shown is to be used to calibrate a heat flux gage. The gage has a black surface that is 10mm in diameter and is maintained at 17°C by means of a water-cooled hacking plate. The heater. 200 mm in diameter, has a black surface that is maintained at 800 K and is located 0.5 m from the gage. The surroundings and the air are at 27°C and the convection heat transfer coefficient between the gage and the air is 15 W/m 2 ⋅ K . (a) Determine the net radiation exchange between the heater and the gage. (b) Determine the net transfer of radiation to the gage per unit area of the gage. (c) What is the net heat transfer rate lo the gage per unit area of the gage? (d) If the gage is constructed according to the description of Problem 3.107, what heat flux will it indicate?
Solution Summary: The author calculates the net radiation exchange between the heater and the gauge.
The arrangement shown is to be used to calibrate a heat flux gage. The gage has a black surface that is 10mm in diameter and is maintained at 17°C by means of a water-cooled hacking plate. The heater. 200 mm in diameter, has a black surface that is maintained at 800 K and is located 0.5 m from the gage. The surroundings and the air are at 27°C and the convection heat transfer coefficient between the gage and the air is
15
W/m
2
⋅
K
.
(a) Determine the net radiation exchange between the heater and the gage. (b) Determine the net transfer of radiation to the gage per unit area of the gage. (c) What is the net heat transfer rate lo the gage per unit area of the gage? (d) If the gage is constructed according to the description of Problem 3.107, what heat flux will it indicate?
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For the instant represented, crank OB has a clockwise angular velocity w = 1.22 rad/sec and is passing the horizontal position.
Determine the corresponding magnitudes of the velocity of the guide roller A in the 22° slot and the velocity of point C midway
between A and B.
15"
7
C. 32"
AO
22%
B
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VA =
VC =
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11.
A load of 2 kN is dropped axially on a close coiled helical spring, from a height of 250 mm. The spring
has 20 effective turns, and it is made of 25 mm diameter wire. The spring index is 8. Find the maximum
shear stress induced in the spring and the amount of compression produced. The modulus of rigidity
for the material of the spring wire is 84 kN/mm².
[Ans. 287 MPa; 290 mm]
higoted to a load which varies
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