The hobby of one of your popular lecturers is mountain climbing. Of course, in this case, there is always the possibility of this lecturer falling into a crack in the mountain glacier. If this accident happened today and the lecturer was caught in a slowly moving glacier, you would wonder when your teacher will reach the lower end of the glacier and whether he will be able to catch up with the lectures/finals at the end of this academic term. Assuming that ice is a Newtonian fluid, and considering that it is approximately the density of glycerin but a million times more viscous, you decide to build a model and experiment using glycerin. Therefore, with the help of dimensional analysis and similarity, you will be able to predict when the lecturer will return from the glacier. Consider that the actual glacier is at a depth of 15 m and on a mountain slope that loses a height of 1.5 m at 1850 m horizontally. Construct the terms (function) dimensionless parameters to include dynamic similarity in this problem. If the lecturer appears in the lab after 9.6 hours in the model, how long will it take to get out of the glacier before you can go and help him in real conditions?(SG ice=0.92, SGglycerin=1.26) V = f (H,L,D,p,g,µ) FOLLOW THE STEPS BELOW FOR ANSWER 1.Step : Parameters: 2. Step : FL t are chosen. 3. Step Parameters Dimensions 4. Adım: selected repetitive parameters: (do not select viscosity and speed as repetitive parameters) 5. Adım: 6. Adım: 7. Adım: how many Pi parameters will you Finding the Pi parameters When will the lecturer appear? find?
The hobby of one of your popular lecturers is mountain climbing. Of course, in this case, there is always the possibility of this lecturer falling into a crack in the mountain glacier. If this accident happened today and the lecturer was caught in a slowly moving glacier, you would wonder when your teacher will reach the lower end of the glacier and whether he will be able to catch up with the lectures/finals at the end of this academic term. Assuming that ice is a Newtonian fluid, and considering that it is approximately the density of glycerin but a million times more viscous, you decide to build a model and experiment using glycerin. Therefore, with the help of dimensional analysis and similarity, you will be able to predict when the lecturer will return from the glacier. Consider that the actual glacier is at a depth of 15 m and on a mountain slope that loses a height of 1.5 m at 1850 m horizontally. Construct the terms (function) dimensionless parameters to include dynamic similarity in this problem. If the lecturer appears in the lab after 9.6 hours in the model, how long will it take to get out of the glacier before you can go and help him in real conditions?(SG ice=0.92, SGglycerin=1.26) V = f (H,L,D,p,g,µ) FOLLOW THE STEPS BELOW FOR ANSWER 1.Step : Parameters: 2. Step : FL t are chosen. 3. Step Parameters Dimensions 4. Adım: selected repetitive parameters: (do not select viscosity and speed as repetitive parameters) 5. Adım: 6. Adım: 7. Adım: how many Pi parameters will you Finding the Pi parameters When will the lecturer appear? find?
![The hobby of one of your popular lecturers is mountain climbing. Of course, in this case, there is always the
possibility of this lecturer falling into a crack in the mountain glacier. If this accident happened today and
the lecturer was caught in a slowly moving glacier, you would wonder when your teacher will reach the
lower end of the glacier and whether he will be able to catch up with the lectures/finals at the end of this
academic term.
Assuming that ice is a Newtonian fluid, and considering that it is approximately the density of glycerin but a
million times more viscous, you decide to build a model and experiment using glycerin. Therefore, with the
help of dimensional analysis and similarity, you will be able to predict when the lecturer will return from the
glacier. Consider that the actual glacier is at a depth of 15 m and on a mountain slope that loses a height of
1.5 m at 1850 m horizontally. Construct the terms
(function) dimensionless parameters to include dynamic
similarity in this problem. If the lecturer appears in the lab
after 9.6 hours in the model, how long will it take to get
out of the glacier before you can go and help him in real
conditions?(SG ice=0.92, SGglycerin=1.26)
V = f (H,L,D,p,g,µ)
FOLLOW THE STEPS BELOW FOR ANSWER
1.Step :
Parameters:
2. Step :
FL t are chosen.
3. Step
Parameters
Dimensions
4. Adım:
selected repetitive parameters: (do not select viscosity and speed as repetitive parameters)
5. Adım:
6. Adım:
7. Adım:
how many Pi parameters will you
Finding the Pi parameters
When will the lecturer appear?
find?](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fa7c52119-ffd6-4210-b572-3d1ebf423762%2F7c7a9445-4bcd-48cb-b8ed-c8c216a6a9d5%2F7zhlv4h_processed.png&w=3840&q=75)
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