This physics problem tests your understanding of fundamental physical laws and their applications. The step-by-step solution below breaks down the problem using relevant equations and physical reasoning.
ScanSolve AI Answer
Step 1: Understand the concept of mass. Mass is a fundamental property of an object that measures its inertia, or the amount of matter it contains. It does not change with location or gravitational field. Step 2: Apply the concept to the problem. If the mass of a ball is 5 kg on Earth, its mass will remain 5 kg on Jupiter, or any other celestial body. The correct option is (a). a) 5 Kg Step 1: Identify the given values. Mass of the object m = 10 kg. Velocity of the object v = 10 m/s. The object is moving with a uniform velocity. Step 2: Determine the acceleration. Uniform velocity means that the velocity is constant, so there is no change in velocity. Therefore, the acceleration a = 0 m/s^2. Step 3: Apply Newton's Second Law of Motion. The force acting on an object is given by F = ma. F = (10 kg)(0 m/s^2) F = 0 N The force acting on the object is 0 N. The correct option is (c). c) 0 Step 1: Recall the formula for kinetic energy. The kinetic energy (KE) of an object is given by the formula: KE = (1)/(2)mv^2 where m is the mass and v is the speed. Step 2: Consider the initial kinetic energy. Let the initial speed be v_1 = v. The initial kinetic energy is KE_1 = (1)/(2)mv^2. Step 3: Consider the new kinetic energy when the speed is doubled. The new speed is v_2 = 2v. The new kinetic energy is KE_2 = (1)/(2)m(2v)^2. KE_2 = (1)/(2)m(4v^2) KE_2 = 4 ((1)/(2)mv^2) KE_2 = 4 KE_1 When the speed is doubled, the kinetic energy is quadrupled. The correct option is (b). b) quadrupled