An engineer group studies on the design of a tour balloon for Cappadocia. It is planned that the design details will be determined through the use of a small-scale model for a prototype balloon. The prototype balloon will be departing from a hill with 30 m height. In the small-scale model, a platform with 0.1. m height will be used to simulate the hill. h = f(t,ho,Vo, g) a) Determine the initial vertical speed (Vo) of the balloon when the initial vertical velocity for the model is found to be 3 m/s. Vo b) How long will the prototype reach the height that the model reaches within 33 minutes? ho c) Calculate the corresponding height (h) for the prototype when the height is 60 m for the model. h = 0
An engineer group studies on the design of a tour balloon for Cappadocia. It is planned that the design details will be determined through the use of a small-scale model for a prototype balloon. The prototype balloon will be departing from a hill with 30 m height. In the small-scale model, a platform with 0.1. m height will be used to simulate the hill. h = f(t,ho,Vo, g) a) Determine the initial vertical speed (Vo) of the balloon when the initial vertical velocity for the model is found to be 3 m/s. Vo b) How long will the prototype reach the height that the model reaches within 33 minutes? ho c) Calculate the corresponding height (h) for the prototype when the height is 60 m for the model. h = 0
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
Section: Chapter Questions
Problem 1.1MA
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Question
An engineer group studies on the design of a tour balloon for Cappadocia. It is planned that the design details will be determined through the use of a small-scale model for a prototype balloon. The prototype balloon will be departing from a hill with 30 ? height. In the small-scale model, a platform with 0.1 ? height will be used to simulate the hill. a) Determine the initial vertical speed (?0) of the balloon when the initial vertical velocity for the model is found to be 3 ?/?. . b) How long will the prototype reach the height that the model reaches within 33 minutes? . c) Calculate the corresponding height (ℎ) for the prototype when the height is 60 ? for the model.
![An engineer group studies on the design of a tour balloon for
Cappadocia. It is planned that the design details will be
determined through the use of a small-scale model for a
prototype balloon. The prototype balloon will be departing from
a hill with 30 m height. In the small-scale model, a platform
with 0.1, m height will be used to simulate the hill.
h = f(t, ho, Vo, g)
a) Determine the initial vertical speed (Vo) of the balloon
when the initial vertical velocity for the model is found
to be 3 m/s.
Vo
b) How long will the prototype reach the height that the
model reaches within 33 minutes?
ho
c) Calculate the corresponding height (h) for the prototype
when the height is 60 m for the model.
h = 0](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fb583875f-00a4-46c4-b05d-8abe43e6330a%2Fda8419c1-313b-4629-afa5-9e32ce2e5d39%2Fvuqgfw_processed.png&w=3840&q=75)
Transcribed Image Text:An engineer group studies on the design of a tour balloon for
Cappadocia. It is planned that the design details will be
determined through the use of a small-scale model for a
prototype balloon. The prototype balloon will be departing from
a hill with 30 m height. In the small-scale model, a platform
with 0.1, m height will be used to simulate the hill.
h = f(t, ho, Vo, g)
a) Determine the initial vertical speed (Vo) of the balloon
when the initial vertical velocity for the model is found
to be 3 m/s.
Vo
b) How long will the prototype reach the height that the
model reaches within 33 minutes?
ho
c) Calculate the corresponding height (h) for the prototype
when the height is 60 m for the model.
h = 0
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