User:Benzrf/Crossbreeding - Revision history

Benzrf at 21:07, 12 January 2010

2010-01-12T21:07:04Z

Benzrf at 17:40, 10 November 2009

2009-11-10T17:40:49Z

Benzrf at 13:43, 23 October 2009

2009-10-23T13:43:44Z

Benzrf at 13:41, 23 October 2009

2009-10-23T13:41:14Z

Benzrf at 13:39, 23 October 2009

2009-10-23T13:39:13Z

Benzrf at 12:33, 23 October 2009

2009-10-23T12:33:04Z

Benzrf at 17:55, 22 October 2009

2009-10-22T17:55:14Z

Benzrf at 17:36, 22 October 2009

2009-10-22T17:36:29Z

Benzrf at 17:36, 22 October 2009

2009-10-22T17:36:06Z

Benzrf at 13:12, 19 October 2009

2009-10-19T13:12:15Z

@@ Line 1: / Line 1: @@
-<!--In ATITD, a plants genome is not a sequence of base pairs, though that should have been fairly obvious. No, it's a sequence of colors instead. Here's a table of them (shamelessly filched from [[Genetics for Dummies]]):
+WARNING: Asheara claims that this guide is fantastically wrong. Use at your own risks.
 {|{table} border=10 cellpadding="1" cellspacing="3" style="background-color:#C0C0C0"
 | '''Gene Color'''
@@ Line 93: / Line 115: @@
 And that's the end of my guide. Good luck crossbreeding!

@@ Line 1: / Line 1: @@
-In ATITD, a plants genome is not a sequence of base pairs, though that should have been fairly obvious. No, it's a sequence of colors instead. Here's a table of them (shamelessly filched from [[Genetics for Dummies]]):
+<!--In ATITD, a plants genome is not a sequence of base pairs, though that should have been fairly obvious. No, it's a sequence of colors instead. Here's a table of them (shamelessly filched from [[Genetics for Dummies]]):
 {|{table} border=10 cellpadding="1" cellspacing="3" style="background-color:#C0C0C0"
 | '''Gene Color'''
@@ Line 93: / Line 93: @@
 And that's the end of my guide. Good luck crossbreeding!

@@ Line 51: / Line 51: @@
 To crossbreed a pair of plants, you place a seed (or vine cutting, or bulb, or etc.) on the right splint of a greenhouse and another seed on the left splint. Then you make sure you have a drop of [[Nut's Essence]] in your inventory, and click the button. Vóila! There-a you a-go.
-What's that? You want to know where that new seed came from? Well, it's pretty simple. Say the plant on the right splint has a genome thusly: BGYIOR and the one on the left has VVIUGGGYGG. Add together the length of each  (5 + 10 = 15) and divide by two. It's a fraction? Roundup. So ya get 8. The new seed's genome is 8 long. The four on the left come from the four on the left in the plant on the left splint ->VVIU|YIOR<- The four on the right come from the four on the right in the plant on the right splint.
+What's that? You want to know where that new seed came from? Well, it's pretty simple. Say the plant on the right splint has a genome thusly: BGYIOR
 There's actually only about a 50% chance that the new plant will have a genome of VVIUYIOR. Another quarter of the time, one of the genes to the left and the right of the splice point will be blown up, and in the last quarter, one of them will be doubled. To sum up:

@@ Line 76: / Line 76: @@
 The genes that the mutagen targets are not random, or at least, not entirely. It depends on the recipe used to make the mutagen. Each mutagen recipe has two stats, usually called m% and n%. This is how you figure out which genes will be hit once you know m% and n% for a mutagen  (see [[Mutagen Tables for Genome Builds]]):
-. Add one to the length of the genome of the plant on the left splint (for example, length of VVIUGGGYGG = 10, plus 1 = 11).
+. Add one to the length of the genome of the plant on the left splint (for example, length of VVIUGGGYGG = 10, plus 1 = 11).<br />
-. Multiply by m% (say, 11 * 12% = 1.32).
+. Multiply by m% (say, 11 * 12% = 1.32).<br />
-. Round down. (1.0, or 1).
+. Round down. (1.0, or 1).<br />
-. Add 1 (2).
+. Add 1 (2).<br />
 This is the lower end of the range. For the higher end:
-. Add one to the length of the genome of the plant on the left splint (for example, length of VVIUGGGYGG = 10, plus 1 = 11).
+. Add one to the length of the genome of the plant on the left splint (for example, length of VVIUGGGYGG = 10, plus 1 = 11).<br />
-. Multiply by m% (say, 11 * 12% = 1.32).
+. Multiply by m% (say, 11 * 12% = 1.32).<br />
-. Round '''UP'''. (2.0, or 2).
+. Round '''UP'''. (2.0, or 2).<br />
-. '''Don't''' add 1 (2).
+. '''Don't''' add 1 (2).<br />
 The lower end is 2, and the upper end is 2 (if the genome were longer, they might be different numbers). So the gene selected in the left splint is #2. To find the one in the right splint, do the same, but use n% instead of m%.
 And that's the end of my guide. Good luck crossbreeding!

← Older revision		Revision as of 13:39, 23 October 2009
Line 78:		Line 78:
	1. Add one to the length of the genome of the plant on the left splint (for example, length of VVIUGGGYGG = 10, plus 1 = 11).		1. Add one to the length of the genome of the plant on the left splint (for example, length of VVIUGGGYGG = 10, plus 1 = 11).
	2. Multiply by m% (say, 11 * 12% = 1.32).		2. Multiply by m% (say, 11 * 12% = 1.32).
		+	3. Round down. (1.0, or 1).
		+	4. Add 1 (2).
		+
		+	This is the lower end of the range. For the higher end:
		+
		+	1. Add one to the length of the genome of the plant on the left splint (for example, length of VVIUGGGYGG = 10, plus 1 = 11).
		+	2. Multiply by m% (say, 11 * 12% = 1.32).
		+	3. Round '''UP'''. (2.0, or 2).
		+	4. '''Don't''' add 1 (2).
		+
		+	The lower end is 2, and the upper end is 2 (if the genome were longer, they might be different numbers). So the gene selected in the left splint is #2. To find the one in the right splint, do the same, but use n% instead of m%.
		+
		+	And that's the end of my guide. Good luck crossbreeding!

← Older revision		Revision as of 12:33, 23 October 2009
Line 62:		Line 62:


−	So far, I've covered almost every topic besides mutagens. Mutagens, contrary to what you may have thought (at least, I thought this), are not added to a crossbreeding to alter what happens. Instead, they're used as a standalone operation. To use a mutagen, you have to first have a seed on both splints (doesn't have to be the same one on left and right). You then choose which one (mutagen) you want to use.	+	So far, I've covered almost every topic besides mutagens. Mutagens, contrary to what you may have thought (at least, I thought this), are not added to a crossbreeding to alter what happens. Instead, they're used as a standalone operation. To use a mutagen, you have to first have a seed on both splints (doesn't have to be the same one on left and right). You then choose which one (mutagen) you want to use. The mutagen will pick one gene from the plant on the left splint, and one gene from the plant on the left splint. Then it'll swap them. You'll get two seeds back: 1 will be the plant on the left splint with the new gene, and the other vice versa with the right splint. Example:
		+
		+	LEFT: VVIUGGGYGG<br />
		+	RIGHT: BGYIOR
		+
		+	Apply the mutagen:
		+
		+	NEW SEED ONE: VVIU'''Y'''GGYGG<br />
		+	NEW SEED TWO: BG'''G'''IOR
		+
		+	Make more sense now?
		+
		+	The genes that the mutagen targets are not random, or at least, not entirely. It depends on the recipe used to make the mutagen. Each mutagen recipe has two stats, usually called m% and n%. This is how you figure out which genes will be hit once you know m% and n% for a mutagen (see [[Mutagen Tables for Genome Builds]]):
		+
		+	1. Add one to the length of the genome of the plant on the left splint (for example, length of VVIUGGGYGG = 10, plus 1 = 11).
		+	2. Multiply by m% (say, 11 * 12% = 1.32).

← Older revision		Revision as of 17:55, 22 October 2009
Line 60:		Line 60:
	12.5%: VVIUUYIOR<br />		12.5%: VVIUUYIOR<br />
	12.5%: VVIUYYIOR<br />		12.5%: VVIUYYIOR<br />
		+
		+
		+	So far, I've covered almost every topic besides mutagens. Mutagens, contrary to what you may have thought (at least, I thought this), are not added to a crossbreeding to alter what happens. Instead, they're used as a standalone operation. To use a mutagen, you have to first have a seed on both splints (doesn't have to be the same one on left and right). You then choose which one (mutagen) you want to use.

@@ Line 55: / Line 55: @@
 There's actually only about a 50% chance that the new plant will have a genome of VVIUYIOR. Another quarter of the time, one of the genes to the left and the right of the splice point will be blown up, and in the last quarter, one of them will be doubled. To sum up:
-%: VVIUYIOR
+%: VVIUYIOR<br />
-.5%: VVIYIOR
+.5%: VVIYIOR<br />
-.5%: VVIUIOR
+.5%: VVIUIOR<br />
-.5%: VVIUUYIOR
+.5%: VVIUUYIOR<br />
-.5%: VVIUYYIOR
+.5%: VVIUYYIOR<br />

← Older revision		Revision as of 17:36, 22 October 2009
Line 48:		Line 48:
	\|}		\|}
	If a certain sequence of genes (called a "phenome") appears in a plant's genome, it will influence the plant when it's grown.. For example, testing has shown that for every OR (orange red) that appears in a flax plant's genome, it will need one less weeding than the default (which, incidentally, is five, not two). [[Flower Genome Theories]] and [[Flax Genome Theories]] have lists of identified phenomes.		If a certain sequence of genes (called a "phenome") appears in a plant's genome, it will influence the plant when it's grown.. For example, testing has shown that for every OR (orange red) that appears in a flax plant's genome, it will need one less weeding than the default (which, incidentally, is five, not two). [[Flower Genome Theories]] and [[Flax Genome Theories]] have lists of identified phenomes.
		+
		+	To crossbreed a pair of plants, you place a seed (or vine cutting, or bulb, or etc.) on the right splint of a greenhouse and another seed on the left splint. Then you make sure you have a drop of [[Nut's Essence]] in your inventory, and click the button. Vóila! There-a you a-go.
		+
		+	What's that? You want to know where that new seed came from? Well, it's pretty simple. Say the plant on the right splint has a genome thusly: BGYIOR and the one on the left has VVIUGGGYGG. Add together the length of each (5 + 10 = 15) and divide by two. It's a fraction? Roundup. So ya get 8. The new seed's genome is 8 long. The four on the left come from the four on the left in the plant on the left splint ->VVIU\|YIOR<- The four on the right come from the four on the right in the plant on the right splint.
		+
		+	There's actually only about a 50% chance that the new plant will have a genome of VVIUYIOR. Another quarter of the time, one of the genes to the left and the right of the splice point will be blown up, and in the last quarter, one of them will be doubled. To sum up:
		+
		+	50%: VVIUYIOR
		+	12.5%: VVIYIOR
		+	12.5%: VVIUIOR
		+	12.5%: VVIUUYIOR
		+	12.5%: VVIUYYIOR

@@ Line 47: / Line 47: @@
 |-
 |}
-If a certain sequence of genes (called a "phenome") appears in a plant's genome, it will influence the plant when it's grown.. For example, testing has shown that for every OR (orange red) that appears in a flax plant's genome, it will need one less weeding than the default (which, incidentally, is five, not two).
+If a certain sequence of genes (called a "phenome") appears in a plant's genome, it will influence the plant when it's grown.. For example, testing has shown that for every OR (orange red) that appears in a flax plant's genome, it will need one less weeding than the default (which, incidentally, is five, not two). [[Flower Genome Theories]] and [[Flax Genome Theories]] have lists of identified phenomes.