1. True. Since the potential energy is taken as zero at infinity.
2. False. It is Henry Cavendish the first to measure the gravitational constant.
3. False.
The period of simple pendulum depends only on length of the pendulum and acceleration due to gravity.
Question 1 The total mechanical energy of a particle in a Newtonian gravitational field can be...
Please help The total mechanical energy of a particle in a Newtonian gravitational field can be NEGATIVE. O True False Question 2 8 pts In the absence of gravity pressure is CONSTANT throughout an incompressible fluid in hydrostatic equilibrium wholly and tightly contained in a box floating in deep space far away from all bodies. O True O False
the total mechanical energy of a particle in a newtonian gravational field can be negative. a. true b. false
The first 3 photos are true or false questions. Question 1 4 pts The total mechanical energy of a particle in a Newtonian gravitational field can be NEGATIVE True False Question 2 4 pts Charles Coulomb was the first to measure the gravitational constant in Newton's Universal Law of Gravitation. True False Question 3 4 pts The period of a simple pendulum increases if the mass is increased. True False Question 4 4 pts Consider a single planet orbiting a...
6. (10 points Extra Credit) Electrodynamics is not the only subject that utilizes Gauss' Law. We can also use it to study Newtonian gravity. The acceleration due to gravity (9can be written as, where G is Newton's gravitational constant and ρ is the m ass density. This leads us to the usual formulation of Newton's universal law of gravity,或刃--GM(f/r, as expected (if we assume V xğ-0). This "irrotational" condition allows us write (in analogy to the electric field), --Vo and...
Parallel Axis Theorem: I = ICM + Md Kinetic Energy: K = 2m202 Gravitational Potential Energy: AU = mgay Conservation of Mechanical Energy: 2 mv2 + u = žmo+ U Rotational Work: W = TO Rotational Power: P = TO Are Length (angle in radians, where 360º = 2a radians): S = re = wt (in general, not limited to constant acceleration) Tangential & angular speeds: V = ro Frequency & Period: Work-Energy Theorem (rotational): Weet = {102 - 10...
Sorry there are so many parts to the question--thank you in advance for your effort. INVESTIGATION 1: ELECTRICAL AND GRAVITATIONAL FORCES Let's begin our discussion with the familiar expression for the Coulomb force exerted on charge 2 by charge 1, F1-2 f12 Unit vector q1 r2 ,-8.99 × 109 Ncme C2 92 where k, is a constant that equals 9.0 x 10 N m2/C2. The force F2-1 of charge 2 on charge 1 is equal in magnitude and opposite in...
Multivariable Calculus help with the magnitude of angular momentum: My questions is exercise 4 but I have attached exercise 1 and other notes that I was provided 4 Exercise 4. In any mechanics problem where the mass m is constant, the position vector F sweeps out equal areas in equal times the magnitude of the angular momentum ILI is conserved (Note: be sure to prove "if and only if") (Note: don't try to use Exercise 2 in the proof of...
ically. Which of the following would AP Physics I-Simple Harmonic Motion 1. A mass is attached to a spring and allowed to oscillate vertically. Which of the follow NOT change the period of the oscillation? a. Double the mass and double the spring constant b. Double the amplitude of vibration and double the mass c. Double the gravitational field strength and double the mass d. Double the gravitational field strength and double the spring constant e. Double the gravitational field...
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...
just question 3a 3b Simple harmonic motion: pendulums Equipment Pendulum bobs String and support Meter stick & mass balance Photogate & Smart Timer Preliminary question 1. Describe simple harmonic motion in your own words. 2. Describe how mechanical energy is conserved during a pendulum's swing. 3. You have a 30.0 g pendulum bob attached to a string that is 50.0 cm long. You raise the bob so that the string makes a 20.0° angle with the vertical (as shown) and...