Water is ejected from the water nozzle with a speed vo = 47.2 ft/sec. For what value of the angle will the water land closest to the wall after clearing the top? Neglect the effects of wall thickness and air resistance. What distance x to the right of point B does the water land?

Water is ejected from the water nozzle with a speed vo = 47.2 ft/sec. For what value of the angle will the water land closest to the wall after clearing the top? Neglect the effects of wall thickness and air resistance. What distance x to the right of point B does the water land?

Name: Water is ejected from the water nozzle with a speed vo = 47.2 ft/sec.
Uploaded: 2024-03-20T06:56:55.000Z
Channel: Bartleby
Description: Water is ejected from the water nozzle with a speed vo = 47.2 ft/sec. For what value of the angle will the water land closest to thewall after clearing the top? Neglect the effects of wall thickness and air resistance. What distance x to the right o

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

Similar questions

A seagull weighing 3.8lbs is flying up in the air. At this instant, it is traveling at a speed of 20ft/s along a path with a radius of curvature of 1500ft. The birds wings make a 50 degree angle with the horizontal and create lift perpendicular to the wings. What is the lift force needed to keep the bird aloft ans what is the total acceleration vector of the bird? Hint: This does NOT mean the normal acceleration is zero.
A marksman fires a practice round from A toward a target B. If the target diameter is 180 mm and the target center is at the same altitude as the end of the rifle barrel, determine the range of "shallow" launch angles for which the round will strike the target. Neglect aerodynamic drag and assume that the round is directed along the vertical centerline of the target. (Note: The word "shallow" indicates a low-flying trajectory for the round.) A 950 m/s Answers: i 0.393 0 1270 m °≤e≤ i 0.402 B O
Given a 1400 kg car that travels along a road with increasing vertical profile y =0.0003x^2. If the constant velocity of the car is 30 m/s of the distance is 210 m, A. Determine the x-component of the velocity (m/s) of the car B. Compute the total force (kN) Hint: The slope of a line is equivalent to tan(θ), where θ is an angle measured from the x-axis.
A stone is thrown upwards with a velocity of 52 m/s from the bottom of the tower of height 180 m. After 3 seconds, another stone is dropped from the top of the tower. Take g= 9.8 m/s. When and where the two stones cross each other
The pilot of a jet transport brings the engines to full takeoff power before releasing the brakes as the aircraft is standing on the runway. The jet thrust remains constant, and the aircraft has a near-constant acceleration of 0.39g. If the takeoff speed is 240 km/h, calculate the distance s and time t from rest to takeoff. Answers: S = i m t = S
A roofer tosses a small tool to the ground. What minimum magnitude vo of horizontal velocity is required to just miss the roof corner B? Also determine the distance d. Answers: Vo = d = i -2.7 m 10 B 1.4 m + 0.9 m +6+4 m 3.3 m m/s
A rocket fired vertically up from the north pole achieves a velocity of 25 000 km/h at an altitude of 339 km when its fuel is exhausted. Calculate the additional vertical height h reached by the rocket before it starts its descent back to the earth. The coasting phase of its flight occurs above the atmosphere. Consult Fig. 1/1 in choosing the appropriate value of gravitational acceleration and use the mean radius of the earth from Table D/2. (Note: Launching from the earth's pole avoids considering the effect of the earth's rotation.) Answer: h= i km
The fire boat discharges two streams of seawater, each at a flow of 0.35 m^3 and with a nozzle velocity of 40 m/s Determine the tension developed in the anchor chain, needed to secure the boat. The density of seawater is ρsw = 1020 kg/m^3
The offset nozzle has a discharge area A at B and an inlet area Ao at C. A liquid enters the nozzle at a static gauge pressure p through the fixed pipe and issues from the nozzle with a velocity v in the direction shown. If the constant density of the liquid is, write expressions for the tension T, shear Q, and bending moment M in the pipe at C. If Ao
Please answer in under 30 minutes and provide clear solutions thank you
Please answer question 2. Thank you!
Water is discharged into the atmosphere from the pipe at 14 m/s (Figure 1). Neglect the resistance provided by the pipe at C, and the weight of the pipe and the water within it. 100 mm B 300 mm 60 mm 150 mm A Determine the horizontal component of force that is developed at the fixed support A by the ground in order to hold the pipe in equilibriu Determine the vertical component of force that is developed at the fixed support A by the ground in order to hold the pipe in equilibrium. Determine the moment that is developed at the fixed support A by the ground in order to hold the pipe in equilibrium.