part b,c and d Consider launching a projectile from a cannon as shown in the diagrambelow.This arrangement has been set up in the experimental equipment provided. Thelaunch angle is 6and the mouth of the cannon is h above the ground. The initialvelocity of the projectile as it leaves themouth of the cannon has a magnitude v:The ball lands on the ground a distance, d, away from themouth of the cannon.............a. Using the diagram and what you know about the acceleration in the x-direction,derive an equation ford, as a function of 6, vi and t.Ax =0D=v *tD=vi*cos(0)*tb. Similarly, using the diagram and what you know ab out the acceleration in they-direction, derive an equation that connects , v, h, and t.c. Take the special case of 8=45° and, using your two equations, show that v,=gd?Vh+dd. Set the angle of the cannon on the demonstration equipment to 45°. Measuretheheight from the desk to the mouth of the cannon.

Initial vertical component of velocity = v sin θ also from the basic equations of motion we know…

Consider launching a projectile from a cannon as shown in the diagram below. This arrangement has been set up in the experimental equipment prov ided. The launch angle is 6and the mouth of the cannon is h above the ground. The initial velocity of the projectile as it leaves the mouth of the cannon has a magnitude v. The ball lands on the ground a distance, d, away from the mouth of the cannon.

Consider launching a projectile from a cannon as shown in the diagram below. This arrangement has been set up in the experimental equipment prov ided. The launch angle is 6and the mouth of the cannon is h above the ground. The initial velocity of the projectile as it leaves the mouth of the cannon has a magnitude v. The ball lands on the ground a distance, d, away from the mouth of the cannon.

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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