The acceleration-time(598 Tvehiclerelationship for asubjected to non-uniformodi599teildvdv -ibndt noiniWhere, v is the speed in m/sec, t is the67 time in sec, a and ß are parameters,on hinand2013101acceleration is,= (α-Bv₁) e-Br orit zwollotm di toLioneVo is the initial speed in m/sec.consillit0.46If the accelerating behaviour of aintends tovehicle, whose driverWHOSSpovertake a slow-moving vehicle ahead,is described asopel ati of emInlever) 4XIMdvIMEANIE-= (a-Bv).dt noupozdua brsConsidering1 ST (8)dvand=1.3 m/s² at t = 3 sec, thedt bhokowi bw marvedistance (in m) travelled by the vehiclea= 2 m/s², p=0.05 s¯¹(1in 35 sec is tevelbs1:16 vasuredrevealed to

Answered: Image /qna-images/answer/be758085-c74f-4af7-88ce-fba70743f93b.jpg

The acceleration-time relationship for a vehicle subjected to non-uniform acceleration is, dv = = brdt no lon (a-Bv₁) e-Br Where, v is the speed in m/sec, t is the time in sec, a and ß are parameters, B B bahboy and ensial Vo is the initial speed in m/sec. fon: 0.46 Dands If the accelerating behaviour of a is described as nel ati of emais intere orit zwollot m di to vehicle, whose whose overtake a slow-moving vehicle ahead, - dv nd Andt dt driver intends to de — = (a-Bv). dt noupozdwa bas LOUT 2 istovo Considering a= 2 m/s², B=0.05 s¹ FT ST (8) dv = 1.3 m/s² at t = 3 sec, the Shelow sbi m' distance (in m) travelled by the vehicle in 35 sec is everthed to vi

The acceleration-time relationship for a vehicle subjected to non-uniform acceleration is, dv = = brdt no lon (a-Bv₁) e-Br Where, v is the speed in m/sec, t is the time in sec, a and ß are parameters, B B bahboy and ensial Vo is the initial speed in m/sec. fon: 0.46 Dands If the accelerating behaviour of a is described as nel ati of emais intere orit zwollot m di to vehicle, whose whose overtake a slow-moving vehicle ahead, - dv nd Andt dt driver intends to de — = (a-Bv). dt noupozdwa bas LOUT 2 istovo Considering a= 2 m/s², B=0.05 s¹ FT ST (8) dv = 1.3 m/s² at t = 3 sec, the Shelow sbi m' distance (in m) travelled by the vehicle in 35 sec is everthed to vi

Structural Analysis

6th Edition

ISBN:9781337630931

Author:KASSIMALI, Aslam.

Publisher:KASSIMALI, Aslam.

Chapter2: Loads On Structures

Section: Chapter Questions

Problem 1P

See similar textbooks

Similar questions

0 1".ll Asiacell Home work m... -> Q1: The position of a particle moving along the x-axis is given by X =4t -9 calculate the acceleration and displacement if velocity =Im/sec Q2 : a ball thrown from the top of a house is given an initial velocity 10 m/sec straight upward the house is 55 m high and after ball reach the maximum hight then down to the ground calculate : 1-time at which the ball reach maximum and the maximum height 2- The velocity and the position of the ball at time = 2 sec Q3: A senior physics class conducting a research project on projectile motion constructs a device that can launch a cricket ball. The launching device is designed so that the ball can be launched at ground level with an initial velocity of 50 m s-1 at an angle of 45° to the horizontal. Calculate 1- The horizontal & vertical components of the velocity of the ball initially. 2- What is the maximum height that is achieved by the ball? 3-How far from lunching point will the ball attain its original level…
A 6 Kg object is subject to three forces F1=20i+ 30 jN F2= 8i-50j N F3= 2i +2j N Find the acceleration of object. 5i + 3j 5i -3j O 3i+5j 3i - 5j
5. Access the stability/determinacy of the structure shown below. The equation to use is: 3m +r ? 3j + e. 3l10)09 3(15)- 0 j-15 57 > 45 用
7= fart Q1. Given the eulerian-vector field V= 4x?i - 10x2yj + 2tk find the velocity and the resultant acceleration at ( 2, 1, 3) at time t= 1
Q1.Solve one of the following differential equation dy + ycotxdx – 5ecosx dx = 0 a-
Find final velocity of car U=4.01 m/s a=2 m/s2 t=3 s
The beam has a modulus of elasticity E and moment of inertia I. a.) Compute the maximum deflection using Area-Moment Method. b.) Use Conjugate Beam Method to compute the same maximum deflection. Express your answers in terms of the variables wo, L, and E, and I. Wo L -2 W.L2 Ix
Knowing that at the instant shown assembly A has a velocity of 9 in./s and an acceleration of 15 in./s2both directed downward, determine (a) the velocity of block B, (b) the acceleration of block B
Q4/ Find the solution of following Differential Equation where the solution represents the deflection equation of cantilever beam shown in Figure.( EI is a beam properties), then compute the deflection at point (B) W W WL EI x² dx + 1.1² + /.x 2x 2 W N/m w14 A Ans./ Deflection@B: B 8 OFLE .X = L X
Solve this Problem 5 using C250x45
The bicycle has a velocity v = 4 ft/s, and at the same instant the rear wheel has a clockwise angular velocity ω = 3 rad/s, which causes it to slip at its contact point A. Determine the velocity of point A
8-9. The o -E diagram for elastic fibers that make up human skin and muscle is shown. Determine the modulus of elasticity of the fibers and estimate their modulus of toughness and modulus of resilience. (MPa) 0.385 0.077 (пm/iни) 2 225