Multi-particle Analysis of Momentum - Revision history

Nacharya: /* References */

2015-12-06T00:45:01Z

References

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	==References==		==References==

	~~This section contains the the references you used while writing this page~~		Veritasium. "Bullet Block Explained!" YouTube. YouTube, 30 Aug. 2013. Web. 05 Dec. 2015.

	[[Category:~~Which Category did you place this in?~~]]		[[Category:Momentum, Energy]]

Nacharya: /* See also */

2015-12-06T00:42:16Z

Nacharya: /* History */

2015-12-06T00:37:43Z

History

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	#As a Computer Science major, I have an entire branch of my field dedicated to creating near-perfect models of systems in virtual space. Creating algorithms to represent these models and building machines that can handle the amount of resources these models drain is an on-going pursuit. At the moment, we have models that can predict motion to an indescribable degree of accuracy, but due to machine memory problems, we can't represent these models as perfect simulations.		#As a Computer Science major, I have an entire branch of my field dedicated to creating near-perfect models of systems in virtual space. Creating algorithms to represent these models and building machines that can handle the amount of resources these models drain is an on-going pursuit. At the moment, we have models that can predict motion to an indescribable degree of accuracy, but due to machine memory problems, we can't represent these models as perfect simulations.
	#Industrial applications of multi-particle analysis can be found everywhere, from the engineering of liquid interfaces to the creation of video game physics engines. This "multi-particle approach" goes way beyond just being a concept of physics: it is how modern physics works.		#Industrial applications of multi-particle analysis can be found everywhere, from the engineering of liquid interfaces to the creation of video game physics engines. This "multi-particle approach" goes way beyond just being a concept of physics: it is how modern physics works.

	~~==History==~~

	~~Put this idea in historical context. Give the reader the Who, What, When, Where, and Why.~~

	== See also ==		== See also ==

Nacharya: /* Connectedness */

2015-12-06T00:36:42Z

Connectedness

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	#This multi-particle analysis is widely used in applied physics to solve a variety of problems. It goes beyond the energy and momentum principles in application, and by increasing the accuracy of the measurements in the analysis, one can predict future motion to a very accurate degree. This is interesting because simply by seeing what forces act on an object in one instant, we can see the future of the object. In particular, this system can be used to calculate astronomical figures related to astronomy. Seeing how collisions can change the trajectory of planets and asteroids, or how the gravitational force of massive objects pull in smaller planets require multi-particle analysis.		#This multi-particle analysis is widely used in applied physics to solve a variety of problems. It goes beyond the energy and momentum principles in application, and by increasing the accuracy of the measurements in the analysis, one can predict future motion to a very accurate degree. This is interesting because simply by seeing what forces act on an object in one instant, we can see the future of the object. In particular, this system can be used to calculate astronomical figures related to astronomy. Seeing how collisions can change the trajectory of planets and asteroids, or how the gravitational force of massive objects pull in smaller planets require multi-particle analysis.
	#As a Computer Science major, I have an entire branch of my field dedicated to creating near-perfect models of systems in virtual space. Creating algorithms to represent these models and building machines that can handle the amount of resources these models drain is an on-going pursuit. At the moment, we have models that can predict motion to an indescribable degree of accuracy, but due to machine memory problems, we can't represent these models as perfect simulations.		#As a Computer Science major, I have an entire branch of my field dedicated to creating near-perfect models of systems in virtual space. Creating algorithms to represent these models and building machines that can handle the amount of resources these models drain is an on-going pursuit. At the moment, we have models that can predict motion to an indescribable degree of accuracy, but due to machine memory problems, we can't represent these models as perfect simulations.
	#~~Is there an interesting industrial application?~~		#Industrial applications of multi-particle analysis can be found everywhere, from the engineering of liquid interfaces to the creation of video game physics engines. This "multi-particle approach" goes way beyond just being a concept of physics: it is how modern physics works.
	This

	==History==		==History==

Nacharya: /* Connectedness */

2015-12-06T00:28:42Z

Connectedness

← Older revision		Revision as of 20:28, 5 December 2015
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	==Connectedness==		==Connectedness==
	#This multi-particle analysis is widely used in applied physics ...		#This multi-particle analysis is widely used in applied physics to solve a variety of problems. It goes beyond the energy and momentum principles in application, and by increasing the accuracy of the measurements in the analysis, one can predict future motion to a very accurate degree. This is interesting because simply by seeing what forces act on an object in one instant, we can see the future of the object. In particular, this system can be used to calculate astronomical figures related to astronomy. Seeing how collisions can change the trajectory of planets and asteroids, or how the gravitational force of massive objects pull in smaller planets require multi-particle analysis.
	#~~How~~ is ~~it connected~~ to ~~your major?~~		#As a Computer Science major, I have an entire branch of my field dedicated to creating near-perfect models of systems in virtual space. Creating algorithms to represent these models and building machines that can handle the amount of resources these models drain is an on-going pursuit. At the moment, we have models that can predict motion to an indescribable degree of accuracy, but due to machine memory problems, we can't represent these models as perfect simulations.
	#Is there an interesting industrial application?		#Is there an interesting industrial application?
			This

	==History==		==History==

Nacharya: /* Connectedness */

2015-12-05T22:56:49Z

Connectedness

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	==Connectedness==		==Connectedness==
	#~~How~~ is ~~this topic connected to something that you are interested~~ in?		#This multi-particle analysis is widely used in applied physics ...
	#How is it connected to your major?		#How is it connected to your major?
	#Is there an interesting industrial application?		#Is there an interesting industrial application?

Nacharya: /* Solution */

2015-12-05T22:55:08Z

Solution

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	Step 5: Each block goes up height <math>{h}</math>, therefore <br>		Step 5: Each block goes up height <math>{h}</math>, therefore <br>
	<math>{W}_{surr} = ({F}_{net,1} + {F}_{net,2}) * {r}_{cm} </math>		<math>{W}_{surr} = ({F}_{net,1} + {F}_{net,2}) * {r}_{cm} </math>

			Step 6: After complete analysis of the system we see that the two blocks have the same translation kinetic energy, however the spinning block has rotational energy, while the non-spinning block gains thermal energy.
			Block 1: <math>{K}_{trans} + {E}_{therm} = {W}_{real}</math>
			Block 2: <math>{K}_{trans} + {k}_{rot} + {E}_{therm,2} = {W}_{real}</math>

	==Connectedness==		==Connectedness==

Nacharya: /* Solution */

2015-12-05T22:50:51Z

Solution

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	[[File:ForceProbFinal.jpg\|400px]]		[[File:ForceProbFinal.jpg\|400px]]

	Step 5: Each block goes up height <math>{h}</math>		Step 5: Each block goes up height <math>{h}</math>, therefore <br>
			<math>{W}_{surr} = ({F}_{net,1} + {F}_{net,2}) * {r}_{cm} </math>

	==Connectedness==		==Connectedness==

Nacharya at 22:45, 5 December 2015

2015-12-05T22:45:45Z

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	Initial:		Initial:
	[[File:ForceProbInit.jpg~~\|left~~\|400px]]		[[File:ForceProbInit.jpg\|400px]]

	Final:		Final:
	[[File:ForceProbFinal.jpg~~\|left~~\|400px]]		[[File:ForceProbFinal.jpg\|400px]]

			Step 5: Each block goes up height <math>{h}</math>

	==Connectedness==		==Connectedness==

Nacharya: /* Solution */

2015-12-05T22:44:18Z

Solution

← Older revision		Revision as of 18:44, 5 December 2015
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	Step 4: Find the initial and final states of the real system.		Step 4: Find the initial and final states of the real system.

	Initial: ~~Final:~~		Initial:
	[[File:ForceProbInit.jpg\|left\|400px]] [[File:ForceProbFinal.jpg\|~~right~~\|400px]]		[[File:ForceProbInit.jpg\|left\|400px]]

			Final:
			[[File:ForceProbFinal.jpg\|left\|400px]]

	==Connectedness==		==Connectedness==

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	== See also ==		== See also ==

	~~Are there related topics or categories in this wiki resource for the curious reader to explore? How does this topic fit into that context?~~

	===Further reading===		===Further reading===

	~~Books~~, ~~Articles or other print media on this topic~~		Chabay, Ruth W., and Bruce A. Sherwood. <i>Matter & Interactions</i>. Hoboken, NJ: Wiley, 2011. Print.

	~~===External links===~~

	~~Internet resources on this topic~~

	==References==		==References==