Question

In: Physics

An green hoop with mass mh = 2.5 kg and radius Rh = 0.12 m hangs...

An green hoop with mass mh = 2.5 kg and radius Rh = 0.12 m hangs from a string that goes over a blue solid disk pulley with mass md = 2.2 kg and radius Rd = 0.09 m. The other end of the string is attached to a massless axel through the center of an orange sphere on a flat horizontal surface that rolls without slipping and has mass ms = 4.3 kg and radius Rs = 0.22 m. The system is released from rest.

A)What is magnitude of the linear acceleration of the hoop?
B)What is magnitude of the linear acceleration of the sphere?
C)What is the magnitude of the angular acceleration of the disk pulley?
D)What is the magnitude of the angular acceleration of the sphere?
E)What is the tension in the string between the sphere and disk pulley?
F)What is the tension in the string between the hoop and disk pulley?
G)The green hoop falls a distance d = 1.55 m. (After being released from rest.)

How much time does the hoop take to fall 1.55 m?
H)What is the magnitude of the velocity of the green hoop after it has dropped 1.55 m?
I)What is the magnitude of the final angular speed of the orange sphere (after the green hoop has fallen the 1.55 m)?

Solutions

Expert Solution

 


Related Solutions

An green hoop with mass mh = 2.8 kg and radius Rh = 0.12 m hangs...
An green hoop with mass mh = 2.8 kg and radius Rh = 0.12 m hangs from a string that goes over a blue solid disk pulley with mass md = 2 kg and radius Rd = 0.09 m. The other end of the string is attached to a massless axel through the center of an orange sphere on a flat horizontal surface that rolls without slipping and has mass ms = 4.1 kg and radius Rs = 0.17 m....
An green hoop with mass mh = 2.8 kg and radius Rh = 0.12 m hangs...
An green hoop with mass mh = 2.8 kg and radius Rh = 0.12 m hangs from a string that goes over a blue solid disk pulley with mass md = 1.9 kg and radius Rd = 0.09 m. The other end of the string is attached to a massless axel through the center of an orange sphere on a flat horizontal surface that rolls without slipping and has mass ms = 3.8 kg and radius Rs= 0.22 m. The...
An green hoop with mass mh = 2.7 kg and radius Rh = 0.16 m hangs...
An green hoop with mass mh = 2.7 kg and radius Rh = 0.16 m hangs from a string that goes over a blue solid disk pulley with mass md = 2.3 kg and radius Rd = 0.1 m. The other end of the string is attached to a massless axel through the center of an orange sphere on a flat horizontal surface that rolls without slipping and has mass ms = 4.2 kg and radius Rs = 0.24 m....
An green hoop with mass mh = 2.7 kg and radius Rh = 0.16 m hangs...
An green hoop with mass mh = 2.7 kg and radius Rh = 0.16 m hangs from a string that goes over a blue solid disk pulley with mass md = 2.3 kg and radius Rd = 0.1 m. The other end of the string is attached to a massless axel through the center of an orange sphere on a flat horizontal surface that rolls without slipping and has mass ms = 4.2 kg and radius Rs = 0.24 m....
Part b. A thin hoop of mass 22 kg and radius 1.5 m rolls down an...
Part b. A thin hoop of mass 22 kg and radius 1.5 m rolls down an incline that is 4 meters tall. What is the velocity of the thin hoop at the bottom of the incline? m/s Part c. A solid disk of mass 22 kg and radius 1.5 m rolls down an incline that is 4 meters tall. What is the velocity of the solid disk at the bottom of the incline? m/s 5. [–/1 Points]DETAILSMY NOTES A 10.3...
A disk of mass 2.5 kg and radius 70 cm with a small mass of 0.09...
A disk of mass 2.5 kg and radius 70 cm with a small mass of 0.09 kg attached at the edge is rotating at 1.8 rev/s. The small mass suddenly flies off of the disk. What is the disk's final rotation rate (in rev/s)?
Problem: a unifiorm hoop of mass m and radius r rolls without slipping on a fixed...
Problem: a unifiorm hoop of mass m and radius r rolls without slipping on a fixed cylinder of radius R. if the hoop is stats rolling from rest on top of the bigger cylinder, use the method of Lagrange multipliers to find the point at which the hoop fall off the cylinder. Question: I know how to derive Lagrange equeation. but to use the method of Lagrange multipliers, i have to finde constrain. solution says that f1, f2 are constrain....
A simple pendulum with mass m = 1.6 kg and length L = 2.79 m hangs...
A simple pendulum with mass m = 1.6 kg and length L = 2.79 m hangs from the ceiling. It is pulled back to an small angle of θ = 10.7° from the vertical and released at t = 0. A)What is the period of oscillation? B)What is the magnitude of the force on the pendulum bob perpendicular to the string at t=0? C)What is the maximum speed of the pendulum? D)What is the angular displacement at t = 3.62...
A simple pendulum with mass m = 2.3 kg and length L = 2.67 m hangs...
A simple pendulum with mass m = 2.3 kg and length L = 2.67 m hangs from the ceiling. It is pulled back to an small angle of θ = 9.4° from the vertical and released at t = 0. What is the maximum speed of the pendulum? 4) What is the angular displacement at t = 3.57 s? (give the answer as a negative angle if the angle is to the left of the vertical) 5) What is the...
A simple pendulum with mass m = 1.3 kg and length L = 2.62 m hangs...
A simple pendulum with mass m = 1.3 kg and length L = 2.62 m hangs from the ceiling. It is pulled back to an small angle of ? = 11.6° from the vertical and released at t = 0. What is the period of oscillation? What is the magnitude of the force on the pendulum bob perpendicular to the string at t=0? What is the maximum speed of the pendulum? What is the angular displacement at t = 3.67...
ADVERTISEMENT
ADVERTISEMENT
ADVERTISEMENT