Project Ideas - Revision history

Seth at 22:28, 24 June 2009

2009-06-24T22:28:08Z

2009-06-24T22:14:20Z

‎Distant

2009-06-24T22:05:37Z

2009-06-24T21:46:06Z

2009-06-24T21:35:41Z

2008-10-14T21:13:22Z

2008-09-30T05:31:14Z

New page

#REDIRECT [[NSF Project Ideas]]

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 *Diaz synch paper and epilepsy
 *Mitchell's approach to FARG and modularity in environments
 ===Past===
 *Small world is a 'best of both worlds' between diameter of a random graph and  clustering coefficient of a lattice.  It takes very few random rewirings to give a lattice a random-graph's diameter.  Is there a relationship between this and the particularly small value that mutation rate takes in GAs?  Mutation rate is often conceptualized as a jump in the solution space, so it may not be hard to establish a connection.

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 *For complex pixel images, look at needlepoint patterns, Islamic tiles and time evolution of Wolfram's rules
 *The process of development reduces modularity.
 ===Past===
 *Small world is a 'best of both worlds' between diameter of a random graph and  clustering coefficient of a lattice.  It takes very few random rewirings to give a lattice a random-graph's diameter.  Is there a relationship between this and the particularly small value that mutation rate takes in GAs?  Mutation rate is often conceptualized as a jump in the solution space, so it may not be hard to establish a connection.

@@ Line 1: / Line 1: @@
-*Small world is a 'best of both worlds' between diameter of a random graph and  clustering coefficient of a lattice.  It takes very few random rewirings to give a lattice a random-graph's diameter.  Is there a relationship between this and the particularly small value that mutation rate takes in GAs?  Mutation rate is often conceptualized as a jump in the solution space, so it may not be hard to establish a connection.
+===Now===
-−
 *My possible paths for immediate research (06/09):
 **reimplement Kashtan and Alon
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 ***Get integration code up
 ***get some walkers evolved

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 ***simple:calculate mods on arch004 bodies
 **evolve topologies on 6-leg agents
 **Get Paul's agent going
 ***Get integration code up
 ***get some walkers evolved

← Older revision		Revision as of 21:35, 24 June 2009
Line 1:		Line 1:
	*Small world is a 'best of both worlds' between diameter of a random graph and clustering coefficient of a lattice. It takes very few random rewirings to give a lattice a random-graph's diameter. Is there a relationship between this and the particularly small value that mutation rate takes in GAs? Mutation rate is often conceptualized as a jump in the solution space, so it may not be hard to establish a connection.		*Small world is a 'best of both worlds' between diameter of a random graph and clustering coefficient of a lattice. It takes very few random rewirings to give a lattice a random-graph's diameter. Is there a relationship between this and the particularly small value that mutation rate takes in GAs? Mutation rate is often conceptualized as a jump in the solution space, so it may not be hard to establish a connection.
		+
		+	*My possible paths for immediate research (06/09):
		+	**reimplement Kashtan and Alon
		+	***to look at decay on scaled up systems
		+	***to scale up systems, and perhaps look at hierarchy
		+	**compare current evo with evo on independent legs, comparing mods
		+	***simple:calculate mods on arch004 bodies
		+	**evolve topologies on 6-leg agents
		+	**Get Paul's agent going
		+	***Get integration code up
		+	***get some walkers evolved

← Older revision		Revision as of 21:13, 14 October 2008
Line 1:		Line 1:
−	~~#REDIRECT [[NSF Project Ideas]]~~	+	*Small world is a 'best of both worlds' between diameter of a random graph and clustering coefficient of a lattice. It takes very few random rewirings to give a lattice a random-graph's diameter. Is there a relationship between this and the particularly small value that mutation rate takes in GAs? Mutation rate is often conceptualized as a jump in the solution space, so it may not be hard to establish a connection.