Chickens with an average mass of 1.7 kg (k = 0 .45 W/m .K, and α = 0 .13 × 10 -6 m 2 /s) and initially at a uniform temperature of 15°C are to be chilled in agitated brine at -7°C. The average heat transfer coefficient between the chicken and the brine is determined experimentally to be 440 W/m 2 K. Taking the average density of the chicken to be 0.95 g/cm 3 and treating the chicken as a spherical lump, determine the center and the surface temperatures of the chicken in 2 h and 45 mm. Also, determine if any part of the chicken will freeze during this process. Solve this problem using the analytical one-term approximation method.
Chickens with an average mass of 1.7 kg (k = 0 .45 W/m .K, and α = 0 .13 × 10 -6 m 2 /s) and initially at a uniform temperature of 15°C are to be chilled in agitated brine at -7°C. The average heat transfer coefficient between the chicken and the brine is determined experimentally to be 440 W/m 2 K. Taking the average density of the chicken to be 0.95 g/cm 3 and treating the chicken as a spherical lump, determine the center and the surface temperatures of the chicken in 2 h and 45 mm. Also, determine if any part of the chicken will freeze during this process. Solve this problem using the analytical one-term approximation method.
Chickens with an average mass of 1.7 kg
(k = 0
.45 W/m
.K, and
α
= 0
.13
×
10
-6
m
2
/s)
and initially at a uniform temperature of 15°C are to be chilled in agitated brine at -7°C. The average heat transfer coefficient between the chicken and the brine is determined experimentally to be 440 W/m2 K. Taking the average density of the chicken to be 0.95 g/cm3 and treating the chicken as a spherical lump, determine the center and the surface temperatures of the chicken in 2 h and 45 mm. Also, determine if any part of the chicken will freeze during this process. Solve this problem using the analytical one-term approximation method.
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Airplanes A and B, flying at constant velocity and at the same altitude, are tracking the eye
of hurricane C. The relative velocity of C with respect to A is 300 kph 65.0° South of West,
and the relative velocity of C with respect to B is 375 kph 50.0° South of East.
A
120.0 km
B
1N
1. Determine the relative velocity of B with respect to A.
A ground-based radar indicates that hurricane C is moving
at a speed of 40.0 kph due north.
2. Determine the velocity of airplane A.
3. Determine the velocity of airplane B.
Consider that at the start of the tracking expedition, the
distance between the planes is 120.0 km and their initial
positions are horizontally collinear.
4. Given the velocities obtained in items 2 and 3, should
the pilots of planes A and B be concerned whether the
planes will collide at any given time? Prove using
pertinent calculations. (Hint: x = x + vt)
0
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Chapter 4 Solutions
Heat and Mass Transfer: Fundamentals and Applications
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First Law of Thermodynamics, Basic Introduction - Internal Energy, Heat and Work - Chemistry; Author: The Organic Chemistry Tutor;https://www.youtube.com/watch?v=NyOYW07-L5g;License: Standard youtube license