Diff for "Newtons2NDLaw" - UW-Physics Faculty Wiki

Differences between revisions 1 and 2

Newton's Second Law

PIRA classification 1G

1G10. Force, Mass, and Acceleration

PIRA #	Demonstration Name	Abstract
1G10.10	acceleration air glider	Air track cart pulled by a falling weight.
1G10.10	acceleration air glider	Accelerate a car on a track with a mass on a string over a pulley.
1G10.10	glider, mass, and pulley	An air track cart is timed while pulled by a mass on a string over a pulley.
1G10.10	string and weight acceleration (air	Three cases of an air glider pulled by a falling weight.
1G10.11	constant mass acceleration system	A cart on the air track is accelerated by a mass on a string over a pulley and final velocity timed photoelectrically. Keep the mass of the system constant by transferring from the cart to the pan.
1G10.11	acceleration air glider	Air cart with a string over a pulley to a mass. Vary mass on both cart and hanger.
1G10.12	acceleration air glider on incline	An puck is timed as it floats up an incline pulled by a string to a weight over a pulley.
1G10.13	acceleration air glider on incline	An air track cart is accelerated up an inclined track by the string, pulley and mass system. A newton scale is included on the cart to measure the tension in the string directly. An electromagnet release and photogate timer at a fixed distance are used to derive acceleration.
1G10.14	acceleration glider accelerometer	An elegant pendulum accelerometer designed for the air track. Reflected laser beam is directed to a scale at one end of the track.
1G10.16	acceleration with spring (air track)	An air track glider is pulled by a small spring hand held at constant extension.
1G10.17	constant force generators	A note that picks some nits about the hanging mass, mentions the "Neg'ator" spring.
1G10.18	battery propeller force generator	Plans for a battery powered air track propeller that provides a constant force.
1G10.19	constant force generator	A constant force generator for the air track based on the induction of eddy currents. It is easy to handle and can be self-made.
1G10.20	acceleration car	Time the acceleration of a toy truck as it is pulled across the table by a mass on a string over a pulley.
1G10.21	acceleration car and track	Apparatus Drawings Project No. 15: Large low friction acceleration carts and track for use in the lecture demonstration.
1G10.21	acceleration car	Three different pulley arrangements allow a cart to be accelerated across the table top.
1G10.21	acceleration car	A car is accelerated by a descending weight.
1G10.21	acceleration car, mass & pulley	Distance and time are measured as a toy truck is accelerated by a mass and pulley system.
1G10.24	acceleration car photo	Take a strobed photo of a light on a car pulled by a weight on a string over a pulley.
1G10.25	acceleration block	Accelerate a block of wood across the table by a mass on a string over a pulley.
1G10.26	acceleration car	A complex arrangement to accelerate a car, vary parameters, and graph results is shown. Details in appendix, p.549.
1G10.30	weight of a mass	Suspend a mass from a spring balance and then cut the string.
1G10.30	mass on a scale	Hang a mass on a spring scale to show reaction of the scale to mg.
1G10.40	Atwood's machine	Two equal masses are hung from a light pulley. A small percentage of one mass is moved to the other side.
1G10.40	Atwood's machine	Place 1 kg on each side of a light pulley on good bearings. Add 2 g to one side.
1G10.40	Atwood's machine	Three skeletonized aluminum pulleys are mounted together on good bearings. Many combinations of weights may be tried.
1G10.40	Atwood's machine	Two equal masses are hung from a light pulley. A small percentage of one mass is moved to the other side.
1G10.40	Atwood's machine	An Atwood's machine using an air pulley.
1G10.40	Atwood's machine	The small weight is removed after a period of acceleration and the resulting constant velocity is measured.
1G10.42	Atwood's machine	Hang the weights from spring balances on each side.
1G10.44	Atwood's machine	A rotation free Atwood's machine using air bearing surface and spark timer.
1G10.44	Atwood's machine	Atwood's machine using an air bearing and spark timer.
1G10.45	Atwood's machine problem	One of the best nerd problems ever.
1G10.45	Morin's machine	Morin's (French) alternative to Atwood's (English) machine.
1G10.51	auto acceleration	On using automotive magazine test results to study kinematic relations.
1G10.52	car time trials	Use student's cars to do time trials in the school parking lot.

1G20. Accelerated Reference Frames

PIRA #

Demonstration Name

Abstract

1G30. Complex Systems

PIRA #

Demonstration Name

Abstract

[:Demonstrations:Demonstrations]

[:Instructional:Home]

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+||<:10%>'''PIRA #'''||<:>'''Demonstration Name'''||<:60%>'''Abstract'''||
||1G10.10||	acceleration air glider||	Air track cart pulled by a falling weight.||
||1G10.10||	acceleration air glider||	Accelerate a car on a track with a mass on a string over a pulley.||
||1G10.10||	glider, mass, and pulley||	An air track cart is timed while pulled by a mass on a string over a pulley.||
||1G10.10||	string and weight acceleration (air||	Three cases of an air glider pulled by a falling weight.||
||1G10.11||	constant mass acceleration system||	A cart on the air track is accelerated by a mass on a string over a pulley and final velocity timed photoelectrically. Keep the mass of the system constant by transferring from the cart to the pan.||
||1G10.11||	acceleration air glider||	Air cart with a string over a pulley to a mass. Vary mass on both cart and hanger.||
||1G10.12||	acceleration air glider on incline||	An puck is timed as it floats up an incline pulled by a string to a weight over a pulley.||
||1G10.13||	acceleration air glider on incline||	An air track cart is accelerated up an inclined track by the string, pulley and mass system. A newton scale is included on the cart to measure the tension in the string directly. An electromagnet release and photogate timer at a fixed distance are used to derive acceleration.||
||1G10.14||	acceleration glider accelerometer||	An elegant pendulum accelerometer designed for the air track. Reflected laser beam is directed to a scale at one end of the track.||
||1G10.16||	acceleration with spring (air track)||	An air track glider is pulled by a small spring hand held at constant extension.||
||1G10.17||	constant force generators||	A note that picks some nits about the hanging mass, mentions the "Neg'ator" spring.||
||1G10.18||	battery propeller force generator||	Plans for a battery powered air track propeller that provides a constant force.||
||1G10.19||	constant force generator||	A constant force generator for the air track based on the induction of eddy currents. It is easy to handle and can be self-made.||
||1G10.20||	acceleration car||	Time the acceleration of a toy truck as it is pulled across the table by a mass on a string over a pulley.||
||1G10.21||	acceleration car and track||	Apparatus Drawings Project No. 15: Large low friction acceleration carts and track for use in the lecture demonstration.||
||1G10.21||	acceleration car||	Three different pulley arrangements allow a cart to be accelerated across the table top.||
||1G10.21||	acceleration car||	A car is accelerated by a descending weight.||
||1G10.21||	acceleration car, mass & pulley||	Distance and time are measured as a toy truck is accelerated by a mass and pulley system.||
||1G10.24||	acceleration car photo||	Take a strobed photo of a light on a car pulled by a weight on a string over a pulley.||
||1G10.25||	acceleration block||	Accelerate a block of wood across the table by a mass on a string over a pulley.||
||1G10.26||	acceleration car||	A complex arrangement to accelerate a car, vary parameters, and graph results is shown. Details in appendix, p.549.||
||1G10.30||	weight of a mass||	Suspend a mass from a spring balance and then cut the string.||
||1G10.30||	mass on a scale||	Hang a mass on a spring scale to show reaction of the scale to mg.||
||1G10.40||	Atwood's machine||	Two equal masses are hung from a light pulley. A small percentage of one mass is moved to the other side.||
||1G10.40||	Atwood's machine||	Place 1 kg on each side of a light pulley on good bearings. Add 2 g to one side.||
||1G10.40||	Atwood's machine||	Three skeletonized aluminum pulleys are mounted together on good bearings. Many combinations of weights may be tried.||
||1G10.40||	Atwood's machine||	Two equal masses are hung from a light pulley. A small percentage of one mass is moved to the other side.||
||1G10.40||	Atwood's machine||	An Atwood's machine using an air pulley.||
||1G10.40||	Atwood's machine||	The small weight is removed after a period of acceleration and the resulting constant velocity is measured.||
||1G10.42||	Atwood's machine||	Hang the weights from spring balances on each side.||
||1G10.44||	Atwood's machine||	A rotation free Atwood's machine using air bearing surface and spark timer.||
||1G10.44||	Atwood's machine||	Atwood's machine using an air bearing and spark timer.||
||1G10.45||	Atwood's machine problem||	One of the best nerd problems ever.||
||1G10.45||	Morin's machine||	Morin's (French) alternative to Atwood's (English) machine.||
||1G10.51||	auto acceleration||	On using automotive magazine test results to study kinematic relations.||
||1G10.52||	car time trials||	Use student's cars to do time trials in the school parking lot.||
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fw: Diff for "Newtons2NDLaw"

Newton's Second Law