TEKS 5 - Pearson School
... Aristotle The ancient Greek scientist and philosopher Aristotle (384 B.C.E.–322 B.C.E.) made many scientific discoveries through careful observation and logical reasoning. He was not always correct. Aristotle incorrectly proposed that force is required to keep an object moving at constant speed. Thi ...
... Aristotle The ancient Greek scientist and philosopher Aristotle (384 B.C.E.–322 B.C.E.) made many scientific discoveries through careful observation and logical reasoning. He was not always correct. Aristotle incorrectly proposed that force is required to keep an object moving at constant speed. Thi ...
Chapter 4
... • Mutual force of attraction between any two objects • Expressed by Newton’s Law of Universal Gravitation: – Every particle in the Universe attracts every other particle with a force that is directly proportional to the product of the masses of the particles and inversely proportional to the square ...
... • Mutual force of attraction between any two objects • Expressed by Newton’s Law of Universal Gravitation: – Every particle in the Universe attracts every other particle with a force that is directly proportional to the product of the masses of the particles and inversely proportional to the square ...
Types of Forces
... Mass VS Weight Mass The mass of an object refers to the amount of matter that is contained by the object Mass is related to how much stuff is there The mass of an object (measured in kg) will be the same no matter where in the universe that object is located Mass is never altered by location, the p ...
... Mass VS Weight Mass The mass of an object refers to the amount of matter that is contained by the object Mass is related to how much stuff is there The mass of an object (measured in kg) will be the same no matter where in the universe that object is located Mass is never altered by location, the p ...
Chapter 10: Energy, Work and Simple Machines
... equals the change in gravitational potential energy. 5.Define and calculate power from calculating the amount of work done by an object. ...
... equals the change in gravitational potential energy. 5.Define and calculate power from calculating the amount of work done by an object. ...
Chapter 4 notes
... Finding her car stuck in the mud, a bright physics student ties a strong rope to the back bumper of the car and the other end to a tree. She pushes the midpoint of the rope with her maximum effort which she estimates to be Fp=300N. The car just begins to budge with the rope at an angle θ which she ...
... Finding her car stuck in the mud, a bright physics student ties a strong rope to the back bumper of the car and the other end to a tree. She pushes the midpoint of the rope with her maximum effort which she estimates to be Fp=300N. The car just begins to budge with the rope at an angle θ which she ...
Chapter 6 - TeacherWeb
... Free fall: An object is in free fall only if _________________ gravity is the only force vacuum acting on it. This can only occur in a _________________ (where there is no air resistance). Orbiting: An object is orbiting when it is traveling in a _______________ circular path around another object. ...
... Free fall: An object is in free fall only if _________________ gravity is the only force vacuum acting on it. This can only occur in a _________________ (where there is no air resistance). Orbiting: An object is orbiting when it is traveling in a _______________ circular path around another object. ...
Chapter 5 - TTU Physics
... In Newton’s Laws, the mass is the inertial mass and measures the resistance to a change in the object’s motion In the gravitational force, the mass is determining the gravitational attraction between the object and the Earth Experiments show that gravitational mass and inertial mass have the same va ...
... In Newton’s Laws, the mass is the inertial mass and measures the resistance to a change in the object’s motion In the gravitational force, the mass is determining the gravitational attraction between the object and the Earth Experiments show that gravitational mass and inertial mass have the same va ...
Vocabulary Cards
... to resist any change in its motion. If motionless, it tends to remain at rest; if moving, it tends to keep moving at the same speed and in the same direction. ...
... to resist any change in its motion. If motionless, it tends to remain at rest; if moving, it tends to keep moving at the same speed and in the same direction. ...
Exam 2
... a. there are no forces acting on the object. b. the net force acting on the object is zero. c. the object is accelerating. d. the object is losing mass. 8. A 7.0-kg bowling ball experiences a net force of 5.0 N. What will be its acceleration? ...
... a. there are no forces acting on the object. b. the net force acting on the object is zero. c. the object is accelerating. d. the object is losing mass. 8. A 7.0-kg bowling ball experiences a net force of 5.0 N. What will be its acceleration? ...
Review PowerPoint
... A 20-N force due north and a 20-N force due east act concurrently on an object. The additional force necessary to bring the object into a state of equilibrium is (A) 20 N, northeast (B) 20 N, southwest (C) 28 N, southwest (D) 28 N, northeast ...
... A 20-N force due north and a 20-N force due east act concurrently on an object. The additional force necessary to bring the object into a state of equilibrium is (A) 20 N, northeast (B) 20 N, southwest (C) 28 N, southwest (D) 28 N, northeast ...