(b) Figure Q.3(b) shows a 510 kg balloon with buoyancy force of F = 6 kN, and the airresistance is Fb = 100y N, where v is veloceity in m/s.(1) Draw a free body diagram and the kinetic diagram of the balloon.(ii) Express the acceleration of the balloon in term of v.(ii) If the balloon starts from rest, find the velocity of the balloon.UNIVERSITIT(iv) Using the expression of velocity obtained in (iii, determine the maximumvelocity of the balloon.Fp = (100v)NF 6 kNFigure Q.3(b)ALAYSIAKERANA TUH

Name: (b) Figure Q.3(b) shows a 510 kg balloon with buoyancy force of F = 6
Uploaded: 2024-03-20T06:56:55.000Z
Channel: Bartleby
Description: (b) Figure Q.3(b) shows a 510 kg balloon with buoyancy force of F = 6 kN, and the airresistance is Fb = 100y N, where v is veloceity in m/s.(1) Draw a free body diagram and the kinetic diagram of the balloon.(ii) Express the acceleration of the ball

Linear velocity of an object is defined as the rate of change in position of the object.…

Engineering

Mechanical Engineering

(b) Figure Q.3(b) shows a 510 kg balloon with buoyancy force of F = 6 kN, and the air resistance is Fp = 100v N, where v is velocity in m/s. (i) Draw a free body diagram and the kinetic diagram of the balloon. (ii) Express the acceleration of the balloon in term of v. (iii) If the balloon starts from rest, find the velocity of the balloon. VERSITI TE (iv) Using the expression of velocity obtained in (iii), determine the maximum velocity of the balloon.

(b) Figure Q.3(b) shows a 510 kg balloon with buoyancy force of F = 6 kN, and the air resistance is Fp = 100v N, where v is velocity in m/s. (i) Draw a free body diagram and the kinetic diagram of the balloon. (ii) Express the acceleration of the balloon in term of v. (iii) If the balloon starts from rest, find the velocity of the balloon. VERSITI TE (iv) Using the expression of velocity obtained in (iii), determine the maximum velocity of the balloon.

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

See similar textbooks

Related questions

Q: A block and sphere are connected by a cord that passes over a pulley as shown. Neglect friction and…

A: “Since you have posted a question with multiple sub-parts, we will provide the solution only to the…

Q: A particle of mass m moves in a straight line wih velocity v(t), subject only to a linear air…

A: Mass of the particle is m Velocity at time t is v(t) Linear air resistance→F=-mv Hence the…

Q: A mass weighting 24 lbs stretches a spring 3 inches. The mass is in a medium that exerts a viscous…

Q: 2. The following initial value problem describes oscillatory motion in a viscous medium: dy dy + 2b…

A: As you mention above i will be providing you only c and d solution. If you want a and b also so send…

Q: A liquid of density p flows through the contraction in Figure P3 and then exits the atmosphere.…

Q: Water moves through a constricted pipe in steady, ideal flow. At the lower point shown in the figure…

A: (a) Write the continuity equation between the lower and the upper point. A1v1=A2v2 Here, A1 is the…

Q: Section 2: Numerical Response Q3 : If the flow into a wind turbine is 10 m/s, and the flow far…

A: Given:The upstream velocity of flow, The downstream velocity of flow,

Q: A 77 kg person is parachuting and experiencing a downward acceleration of 2.5 m/s shortly after…

Q: An exuberant 30 lb beagle awaiting dinner jumps to a height of 2.5 feet once every 4 seconds. The…

A: Given: The weight of beagle, W = 30 lb The time duration for jump, t = 4 s The total time of jump, T…

Q: Heat is transferred through the wall of a vertical cylinder to air trapped inside it by a…

Q: The left field wall at a baseball park is 320 feet down the third base line from home plate; the…

Q: Don't use chatgpt will upvote

Q: E2.13 Assuming the lever in Figure E2.13 has negligible mass and remains within a small angle of the…

A: The lever is mass less

Q: In a car lift used in a service station, compressed air exerts a force on a small piston that has a…

Q: A basketball player drops a 0.5 kg basketball vertically so that it is traveling at 5.0 m/s when it…

Q: Aircraft is in climbing flight. It has the following parameters: Aircraft mass m 237 tonnes Wing…

A: First, we need to convert the given parameters into appropriate units for the calculations. The mass…

Q: A thin-walled pipe, a uniform cylinder, a uniform sphere, and a bowling ball are all lined up on a…

A: For the solution refer below images.

Q: 2) Caryn purchases an electronic telescope that automatically extends and rotates the lens to focus…

A: The angle is The angular velocity is The value are

Q: A freight train has a mass of 1.4 x 10 kg. If the locomotive can exert a constant pull of 8.4 x 105…

Q: 3. A 127-kg stunt man throws himself off a 18-m tall building onto a trampoline. The trampoline…

A: mass of the stunt man (m)=127kg length of building =18m stretch in trampoline (x)=1m assuming…

Q: A diver 50 m deep in 8°C fresh water exhales a 1.2 cm diameter bubble which rises to the surface of…

A: given; depth(h)=50mdiameter(d1)=1.2cm =1.2*10-2mwhen diameter(d2)=2.2cm…

Q: A wooden ballistic pendulum, with a mass equal to 10 kg, suspended by a wire 1 meter long, is hit at…

Q: 6. A 100 cc block of Styrofoam (density 100 kg/m³) is held by a massless string, attaching the…

Topic Video

Question

(b) Figure Q.3(b) shows a 510 kg balloon with buoyancy force of F = 6 kN, and the air
resistance is Fb = 100y N, where v is veloceity in m/s.
(1) Draw a free body diagram and the kinetic diagram of the balloon.
(ii) Express the acceleration of the balloon in term of v.
(ii) If the balloon starts from rest, find the velocity of the balloon.
UNIVERSITIT
(iv) Using the expression of velocity obtained in (iii, determine the maximum
velocity of the balloon.
Fp = (100v)N
F 6 kN
Figure Q.3(b)
ALAYSIA
KERANA TUH

Expert Solution

This question has been solved!

Explore an expertly crafted, step-by-step solution for a thorough understanding of key concepts.

This is a popular solution!

SEE SOLUTION Check out a sample Q&A here

Step 1

VIEW

Step 2

VIEW

Step 3

VIEW

Trending now

This is a popular solution!

Step by step

Solved in 3 steps with 1 images

SEE SOLUTION Check out a sample Q&A here

Knowledge Booster

Learn more about

Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, mechanical-engineering and related others by exploring similar questions and additional content below.

Similar questions

A 227 kg bear* is 15 ft up a tree when it falls onto a trampoline deforming it 3 ft (where it touches the ground). Neglecting friction and mass of the trampoline (and assuming the trampoline is a simple spring), what is the spring constant of the trampoline? 1 m = 3.3 ft * the bear was OK a. 24,470.60 N/m b. 2,441.93 N/m c. 741.53 N/m d. 7,415.33 N/m
Engineering mechanics statics
A 5-kg object is acted upon by a horizontal force P=18t [N], where t is time in seconds. The coefficient of kinetic friction is µk = 0.15. At t = 2 s, the object's velocity is 10 m/s. Determine the velocity at t = 4 s. Use the Impulse-Momentum method. Provide the free-body diagram and show all work. P
O 5 kg 2m The figure above shows a block rotating in a vertical circle at the end of a string. At P, the string pulls down on the block with a force of 20 N (b) Calculate the speed of the block at point P.
3.6 A 125-mL cube of solid oak is held submerged by a tether as shown. Calculate the force of the water on the bottom surface of the cube and the tension in the tether. Patm Oil 0.5 msG = 0.8 Water 0.3 m Рз.6
In this question, assume the "additional displacement" is in the positive u direction. A mass weighing 16 lbs stretches a spring 8 inches. The mass is in a medium that exerts a viscous resistance of 1 lbs when the mass has a velocity of 2 ft/sec. Suppose the object is displaced an additional 5 inches and released. Find an equation for the object's displacement, u(t), in feet after t seconds. u(t) =
1. ooo 1 B₁ M₁ पती System coefficients: K₁ = 600 N/m K₂ = 400 N/m C₁ = 8 kg/s C₂ = 2 kg/s M = 50 kg K₂ 000 -fa(t) x2 M₂ B₂ Figure P2.1 Determine the free-body-diagram of the system above. Derive the equation of motion (EOM).
In 1589, the Italian scientist Galileo Galilei is said to have dropped two spheres of different masses from the Leaning Tower of Pisa to demonstrate that their time of descent was independent of their mass. His experiment is faulty because he neglected: (i) The body force due to gravity. The surface force due to pressure. The surface force due to friction. (ii) (iii) (A) (B) (C) (D) (i) and (ii) (i) and (iii) (ii) and (iii) All of the above
Q3. In the image shown below, according to the provided datum line, determine the gravitational potential energy of the 5.9-kg block. The radius r = 2.6 m and the angle 0 = 29°. Negative sign must be included if the energy is negative. Please pay attention: the numbers may change since they are randomized. Your answer must include 1 place after the decimal point, and proper SI unit. Take g = 9.81 m/s². Your Answer: Answer Ө units Datum
: You are abducted by aliens and find yourself locked in a large room on some strangeplanet. To pass the time, you decide to do some experiments using a ball-and-chain thatyou find on the floor. You make the following estimates:mBALL  7 kg ,mCHAIN  0.5 kg, and CHAIN  2 m .(a) When you hold the free end of the chain above your head and allow the ball to swinglike a pendulum, you use your wristwatch to measure the period asT  4 s. What is theacceleration due to gravity on this planet?(b) If the ball accidentally hits a wall, how long does it take for this jolt in the chain totravel up to your hand?
6.2 In class we noted that the potential energy of a spring is given by Vsp (2) and k the spring constant. Now consider an object of mass m (not attached to the spring) that drops from rest, from a height z; > z0; onto the spring (which is initially in equilibrium at its rest length). Both the gravitational force and the spring force now contribute to the potential energy, initial final k(z – zo)²/2, where zo is the spring's equilibrium point E Zo Z=0 Vgrav Vgrav + Vsp if z z0 V (2) = (1) (a) Sketch (by hand, but carefully) a potential energy diagram for V(2) as a function of height z. (b) Include (and mark) the object's initial energy in the sketch of part (a), then include a horizontal line for the object's conserved total energy E. Also mark the turning point zf for z < zO. (c) Calculate the turning point position zf where the object momentarily comes to rest." (d) Your graph of part (a) should have an equilibrium point. Mark this equilibrium point in your graph, then calculate its…