Work is being done to stretch the packing tape. The force of the rubber band is modeled with an expression
F (x) = - Fo [(L + x)/L − L2 /(L + x)2],
where Fo = 9.2 N, the elastic length of the elastic band L = 0.95 m and the x is the change in the length of the elastic band.
Determine how much work is done on the elastic band when stretching the distance d = 0.55 m
Work is being done to stretch the packing tape. The force of the rubber band is...
1. A force of 2 N will stretch a rubber band 0.02 m. How far will a 4 N force stretch the band (assume Hooke's Law applies)? How much work does it take to stretch the band this far?
A bungee cord is essentially a very long rubber band that can stretch up to four times its unstretched length. However, its spring constant varies over its stretch [see Menz, P.G. “The Physics of Bungee Jumping.” The Physics Teacher (November 1993) 31: 483-487]. Suppose an unstretched bungee cord has a length l0 = 23.3 m and during a bungee jump it stretches so that its maximum total length is l = 53.7 m. Suppose that bungee cord behaves like an...
A bungee cord exerts a nonlinear elastic force of magnitude F(x) = k1x + k2x3, where x is the distance the cord is stretched, k1 = 203 N/m and k2 = −0.220 N/m3. How much work (in kJ) must be done on the cord to stretch it 15.0 m? _? kJ
A bungee cord exerts a nonlinear elastic force of magnitude F(x) = 192.1x + -0.13x^3 where x is the distance the cord is stretched. How much work must be done on the cord to stretch it 18.5 m? Enter your answer in kJ to the tenth's place
(1 point) Finding the work done in stretching or compressing a spring. Hooke's Law for Springs. According to Hooke's law, the force required to compress or stretch a spring from an equilibrium position is given by F(x) = kx, for some constant k. The value of k (measured in force units per unit length) depends on the physical characteristics of the spring. The constant k is called the spring constant and is always positive. Part 1. Suppose that it takes...
link phenomena at these measurements, if we have a reliable model and appropriate mathematical skills to two length scales. You will be able to predict the behavior of rubber under a variety of practical Preliminary calculations Consider a piece of rubber with initial dimensions and orientation shown in the diagram below: to bo where lo, bo, and to are the unstretched length, width, and thickness, respectively Then L./ lo A force F is applied parallel to the x-axis, stretching the...
of the work is done by a force on an object, then wich is true? of the object must change. does an equal amount of work on the force anv enerav appearina as heat. liaht. o A. The speed The work done is equal to the chang nest lioht the object plus equal to the change of total kinetic energy enerav . The object .The force cannot take energy away from must change height above the ground cting air 1....
Please provide work and explanations! Example 13.4.2 Sample Problem Work done by a gravitational force Two stationary particles with mass m = 3.00 x 10-13 kg and m2 = 5.00 x 10-13 kg are initially separated by distance r = 2.60 x 10-3 m. We double their separation and then they are stationary again. We want to calculate how much work we do in increasing the separation and how much is done by the gravitational force between the particles. We...
Step 1 Expression for work done by the frictional force on an object is, Here, k is coefficient of kinetic friction, m is mass of object, g is gravitational acceleration, and d is displacement, Work done is path dependent parameter. In the given case, the person put the box at starting position. Hence, the displacement of the box is zero. Therefore, the work done by the person on the box 1S Zero Thus, the correct option is Concept Check 6.1...
12:3 Step 1 Expression for work done by the frictional force on an object is, Here, is coefficient of kinetic friction, mis mass of object, g is gravitational acceleration, and is displacement. Work done is path dependent parameter. In the given case, the person put the box at starting position. Hence, the displacement of the box is zero. Therefore, the work done by the person on the box is zero. Thus, the correct option is oncept Check 6.1 A person...