Q5:- In the epicyclic gear train shown in the Fig. below the pinion B and the internal wheels E and F are mounted independently on the spindle O while C and D forms a compound wheel which rotates on the pin P attached to the arm A. The wheels B. C and D have15, 30 and 25 teeth respectively all of the same module. It is required the followings:- (a) if the wheel E is fixed what is the ratio of the speed of F to that of B? and

Q5:- In the epicyclic gear train shown in the Fig. below the pinion B and the internal wheels E and F are mounted independently on the spindle O while C and D forms a compound wheel which rotates on the pin P attached to the arm A. The wheels B. C and D have15, 30 and 25 teeth respectively all of the same module. It is required the followings:- (a) if the wheel E is fixed what is the ratio of the speed of F to that of B? and

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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The lath machine in the university mechanical workshop uses epicyclic gear train shown in Figure 1 to operate. Plate gear Cof this gear system are carried on the arm A and free to rotated. the pitch circle diameter of the internally toothed ring gear D is to be 214 mm and the module 4 mm. When the ring gear D is stationary, the arm A, which carries three planet wheels C of equal size, is to make one revolution in the same direction as thesun wheel B for every five revolutions of the driving spindle carrying the sunwheel B.Determine suitable number of teeth for all the wheels and the exact diameter of pitch circle of the ring.1.1. Calculate the number of teeth of the ring gear D. 1.2. State an equation tha relate the number of teeth of gear D, B and C. 1.3. Use the table method to calculate the number of teeth of gear B. 1.4. Calculate the number of teeth for gear C.
The lath machine in the ( mechanical workshop uses epicyclic gear train snuwn in Figure 1 to operate. Plate gear C of this gear system are carri on the arm A and free to rotated. the pitch circle diameter of the internally toothed ring gear D is to be 214 mm and the module 4 mm. When the ring gear D is stationary, the arm A, which carries three planet wheels C of equal size, is to make one revolution in the same direction as the sun wheel B for every five revolutions of the driving spindle carrying the sunwheel B. Ring gear D Planet gear C Sun gear B Figure 1: An picyclic gear train of the lath machine Determine suitable number of teeth for all the wheels and the exact diameter of pitch circle of the ring. Calculate the number of teeth of the ring gear D.
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The lath machine in the Central University of Technology (CUT) mechanical workshop uses epicyclic gear train shown in Figure 1 to operate. Plate gear C of this gear system are carried on the arm A and free to rotated. the pitch circle diameter of the internally toothed ring gear D is to be 214 mm and the module 4 mm. When the ring gear D is stationary, the arm A, which carries three planet wheels C of equal size, is to make one revolution in the same direction as the sun wheel B for every five revolutions of the driving spindle carrying the sun wheel B. Determine suitable number of teeth for all the wheels and the exact diameter of pitch circle of the ring. Use the table method to calculate the number of teeth of gear B and calculate the number of teeth for gear C.
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