

UNUL ny. 10 Marks) B) The rod shown in Figure 2 below has its mass per...
The uniform thin rod in the figure below has mass M =
4.00 kg and length L = 2.21 m and is free to rotate on a
frictionless pin. At the instant the rod is released from rest in
the horizontal position, find the magnitude of the rod's angular
acceleration, the tangential acceleration of the rod's center of
mass, and the tangential acceleration of the rod's free end.
(a)
the rod's angular acceleration (in rad/s2)
rad/s2
(b)
the tangential acceleration...
Question 2 The pendulum shown in Figure 2 consists of a concentrated mass m attached to a rod whose mass is small compared to m. The rod's length is L. The equation of motion for this pendulum is Suppose that L 1 m and g 9.81 m/s2. Use MATLAB to solve this equation using symbolic and numerical techniques for, θ(t) for two cases: , θ(0)-0.5 rad and, θ(0)-0.8 rad. In both cases 0(0) 0. Figure 2- A pendulum [3 marks]...
The mass of the uniform slender steel rod, shown in Figure 2, is 3 kg. The system is set in motion with small oscillations about the horizontal equilibrium position shown. (i) Determine the position x for the slider such that the system period is 1 s. (ii) When the pivot is replaced by a built-in support that restricts any rotation at O and the spring is moved to the right-hand end with the 1.2 kg mass removed, calculate the frequency...
1- Below figure a rod of AB by the length of 6.0 m and mass of 20.0 kg is hinged at one end and the other end is attached to a cord and cord to the wall. A mass of 60.0 kg is at 2.0 meter from the hinge and another mass with 80 kg is at 5.0 meter from hinge. At this situation find amount of tension in cord and exerted force from wall on the hinge. string 50...
Problem 1: Axial vibrations of a rod The rod of length L is fixed at ends x = 0 and x = L. The density of the rod is ρ(x), stiffness k(x) being subjected to a force f(x, t). Let's derive the equations for axial vibrations of a rod using almped model. We express the rod niy mol 41 in as a chain of masses m,mm, connected to each other through springs as shown in the figure. Let's say each...
Rod AO in the stone crusher mechanism shown in Figure Q5 is rotating counter clockwise at a constant 750 rpm. At the position and instant shown in Figure Q5 determine: (20 marks) (20 marks) (10 marks) (10 marks) (20 marks) 3) The angular velocity of link PB 4) The absolute velocity of point C 5) The angular velocity of block containing point C OA-90 mm; AB- 860 mm; PB- BC -QC- 500 mm The diagram is reproduced to scale but...
Rod AO in the stone crusher mechanism shown in Figure Q5 is rotating counter clockwise at a constant 750 rpm. At the position and instant shown in Figure Q5 determine: (20 marks) (20 marks) (10 marks) (10 marks) (20 marks) 3) The angular velocity of link PB 4) The absolute velocity of point C 5) The angular velocity of block containing point C OA-90 mm; AB- 860 mm; PB- BC -QC- 500 mm The diagram is reproduced to scale but...
7. + -/2 points Nonuniform Rod A 34 cm rod has a linear density (mass per unit length) of 2(x) = 45 g/m + 17 g/m2 x where x is the distance along the rod from one of its ends. (a) What is the mass of the rod? (b) How far from the x = 0 end is the center of mass?
1. Finding the Moment of Inertia of a Uniform Thin Rod with mass M and length L rotating about its center (a thin rod is a ID object; in the figure the rod has a thickness for clarity): For this problem, use a coordinate axis with its origin at the rod's center and let the rod extend along the x axis as shown here (in other problems, you will need to generate the diagram): dx dm Now, we select a...
QUESTION 2 (10 Marks) The system shown in Figure 2 consists of a couple of bars and a wheel. The bar AB rotates at approximately 10 rads in the counter-clockwise direction. Note that the wheel is rolling on a circular surface, however, it is a smooth surface. Using the instantaneous centre of zero velocity method, determine the angular velocities of the wheel and bar BC. (10 marks - C03) I m 1 3 m 2 m 3 m B Figure...