 
									
								
									Impulse and Momentum
									
...  Momentum: mv, or the product of the object’s mass and the objects velocity  Impulse-momentum Theorem: FΔt= pf –pi ; The impulse on an object is equal to the object’s final momentum mines the object’s initial momentum (p= momentum) ...
                        	...  Momentum: mv, or the product of the object’s mass and the objects velocity  Impulse-momentum Theorem: FΔt= pf –pi ; The impulse on an object is equal to the object’s final momentum mines the object’s initial momentum (p= momentum) ...
									Lesson 4
									
... Now substitute 9 for x in either equation to find the value of y. First equation Simplify. Subtract 18 from each side. Simplify. Answer: The solution is (9, 5). ...
                        	... Now substitute 9 for x in either equation to find the value of y. First equation Simplify. Subtract 18 from each side. Simplify. Answer: The solution is (9, 5). ...
									Centripetal Force
									
... A 200. g mass hung is from a 50. cm string as a conical pendulum. The period of the pendulum in a perfect circle is 1.4 s. What is the angle of the pendulum? What is the tension on the string? ...
                        	... A 200. g mass hung is from a 50. cm string as a conical pendulum. The period of the pendulum in a perfect circle is 1.4 s. What is the angle of the pendulum? What is the tension on the string? ...
									MATH 10005 SOLVING SYSTEMS OF LINEAR EQUATIONS KSU
									
... • System of linear equations: consists of two or more linear equations with the same variables. • Consistent: The system is consistent if there is exactly one solution. • Inconsistent: The system is inconsistent if there is no solution. This happens when the two equations represent parallel lines . ...
                        	... • System of linear equations: consists of two or more linear equations with the same variables. • Consistent: The system is consistent if there is exactly one solution. • Inconsistent: The system is inconsistent if there is no solution. This happens when the two equations represent parallel lines . ...
									Magnetospheric Simulations
									
... • Additional models must be used to include the ring current in the MHD models. – Empirically based ring current models can be added to the MHD models (e.g. the Fok ring current model). – Theoretical models can be added such as the Rice Convection Model which include the particle motion. ...
                        	... • Additional models must be used to include the ring current in the MHD models. – Empirically based ring current models can be added to the MHD models (e.g. the Fok ring current model). – Theoretical models can be added such as the Rice Convection Model which include the particle motion. ...
									2.1 Speed and constant velocity.
									
... pencil does not suddenly fly across my desk unless I push it. If I push my coffee cup across the table it comes to a stop, why? The force acting on it is the force of friction. Newton’s Second Law: An unbalanced force (or net force) causes an object to accelerate; this acceleration is directly propo ...
                        	... pencil does not suddenly fly across my desk unless I push it. If I push my coffee cup across the table it comes to a stop, why? The force acting on it is the force of friction. Newton’s Second Law: An unbalanced force (or net force) causes an object to accelerate; this acceleration is directly propo ...
									Blast Off
									
... and field investigations, including the appropriate use of safety showers, eyewash fountains, safety goggles and fire extinguishers. 1.C Demonstrate an understanding of the use and conservation of resources and the proper disposal or recycling of materials. 2.E Plan and implement investigative proce ...
                        	... and field investigations, including the appropriate use of safety showers, eyewash fountains, safety goggles and fire extinguishers. 1.C Demonstrate an understanding of the use and conservation of resources and the proper disposal or recycling of materials. 2.E Plan and implement investigative proce ...
									Division of Engineering Brown University
									
... Be able to differentiate position vectors (with proper use of the chain rule!) to determine velocity and acceleration; and be able to integrate acceleration or velocity to determine position vector. Be able to describe motion in normal-tangential and polar coordinates (eg be able to write down vecto ...
                        	... Be able to differentiate position vectors (with proper use of the chain rule!) to determine velocity and acceleration; and be able to integrate acceleration or velocity to determine position vector. Be able to describe motion in normal-tangential and polar coordinates (eg be able to write down vecto ...
									quiz 4
									
... For Questions 13 - 17, Complete the following sentences using the letter for the correct terms from the list below: a. centripetal, inwards b. centrifugal, outwards c. tangent , straight d. velocity, radius e. inertia, centrifugal Note: you can use the same choice more than once! 13. In the image a ...
                        	... For Questions 13 - 17, Complete the following sentences using the letter for the correct terms from the list below: a. centripetal, inwards b. centrifugal, outwards c. tangent , straight d. velocity, radius e. inertia, centrifugal Note: you can use the same choice more than once! 13. In the image a ...
									Maths - Nanyang Technological University
									
... Derivatives of standard functions. Derivative of a composite function. Differentiation of sum, product and quotient of functions and of simple functions defined parametrically. Applications of differentiation to gradients, tangents and normals, stationary points, velocity and acceleration, connected ...
                        	... Derivatives of standard functions. Derivative of a composite function. Differentiation of sum, product and quotient of functions and of simple functions defined parametrically. Applications of differentiation to gradients, tangents and normals, stationary points, velocity and acceleration, connected ...
 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									