1) Discuss how r and theta can be used to integrate around part of a circle...
the charge +2q can be positioned anywhere on the circle of radius R around the region, making an angle theta with respect to the x-axis. A charge -q is located at <-Rsqrt(2),0,0> to the left of the origin. a. what is the net electric field in terms of q, R and theta? b.Is it possible to have a zero net electric field inside of the sphere (located at the origin). If so give the correspnding value of theta. c.Determine the...
A particle object undergoes uniform circular motion at a speed v around a circle of radius r. Given v and r, the magnitude of centripetal acceleration is a0. Assume when either v or r are changed, the particle remains in uniform circular motion. 1. Suppose the radius of the circle is cut in half. What happens to the magnitude of the centripetal acceleration? choices: the acceleration doubles, acceleration increases by square root of 2, acceleration remains the same, acceleration decreases...
# Problem 1 # Suppose a point-mass particle with mass, 'm', moving in a gravitational potential, 'U(r)', where 'r' is the distance from the center of the potential. A positional vector and momentum vector of a particle are vec r' and "vec p', respectively. (\vec means vector symbol.) Q1) An angular momentum vector vec J' is defined as vec J = \vec r x \vec p. Show that \vec J is conserved in such a gravitational potential U(r) which depends...
Exercise 0.2. Consider a particle moving around in a circle according to the position function - F(t) Rcos i+Rsin where R is the radius of the circular trajectory and a is a constant with units of radians per second-squared. (a) What is the velocity function, ö(t), for this particle? Is the velocity perpendicular to the position as in the previous problem? HINT: To do this, you will need to make use of the chain rule. (b) What is the particle's...
Consider the polar graph r=1-sin theta and r= sin theta, shown below. Please help with B, D, and E 5. Consider the polar graphs r = 1-sin 0 and r = sin 0, shown below. a. Find the polar coordinates (r, 2) for all points of intersection on the figure. Hint: Not all points can be found algebraically. For b.-d., set up an integral that represents the area of the indicated region. b. The region inside of the circle, but...
1). In a uniform circular motion, instantaneous velocity is tangent to the circle a) True b) False c) Can's say 2).In a uniform circular motion, acceleration is normal to the velocity and directed toward the center a) True b) False c) Unknown 3). For a particle of mass 'm' moving with a uniform velocity 'v'in a circle of radius 'r', write the expression for centripetal force (Fc)? 4). If a particle rotates in a circle of radius r = 10...
1).In a uniform circular motion, instantaneous velocity is tangent to the circle a) True b) False c) Can's say 2).In a uniform circular motion, acceleration is normal to the velocity and directed toward the center a) True b) False c) Unknown 3). For a particle of mass 'm' moving with a uniform velocity 'v' in a circle of radius 'r', write the expression for centripetal force (Fc)? 4). If a particle rotates in a circle of radius r= 10 cm...
A particle is moving clockwise on a circle of radius R= 30. The acceleration at t=13π is a(13π)=〈0,−13〉. (a) (5 Points) Find T(13π).Hint: The unit tangent vector of the particle at P will be the same independently of the parametrization of the circle. You can user(t) =〈sin (t),cos (t)〉as the path of a particle moving clockwise on a circle of radius R= 1. (b) (5 points) Find aT at t=13π. (c) (5 points) What is the curvature at t=13π. (d)...
Hi there can you please answer question part (b) (ii) - thank you Consider a test particle of mass m orbiting in a Schwarzschild black hole of mass M. If the particle orbits at a speed uc and at a distance r > ., where c is the speed of light and . = 2GM/? the Schwarzschild radius, we can use the usual Newtonian central force equations of motion to analyse the orbit. The effective potential, however, needs to be...
tonHint: The assumption was not "it's moving in a circle."1 2. Claiming that a particle is moving in a circle with a constant radius is logically/mathematically equiv- 3. Consider a particle moving in a cirele of radius R. How is it posible for the particle to experience an 4. After deriving the formula for centripetal acceleration, we were inspired by Newton's d Law to alent to two other claims. State at least one of those claims. acceleration when its speed...