Калькулятор генов в растения

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jaretburkett/rust-genetics-calculator

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README.md

I was not happy with how the other genetic calculators worked, so I made my own that has all the features I want.

In normal mode, you can enter the genetics of all the clones you have and select which ones to breed together. Once you add 3 or more genetics to the Breeding Genetics table, the app with calculate all the possible results of the crossbreeding.

Smart mode makes everything simple. All you have to do it add all the clones you have, enter your desired target gene makeup, and it will run through every possible combination to figure out what genetics you can cross breed to get you the desired result, or as close to it as possible. The algorithm for this gives penalties for red genes in the output and penalties for the number of possible results. If there is a combination that will guarantee a single output of your target, smart mode will find it. For target, it ignores placement of genes. So YYYGGG is the same as YGYGYG .

This tool is really only handy if you know how crossbreeding works, and I intend to change that. In the future I will have it show each step and where to place each plant at different stages to get the desired outcome. But for now, if you have a basic understanding of how crossbreeding works, it should hopefully be beneficial to you.

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Genetics Calculator

Rust has a rather sophisticated farming system which involves genetics. Each seed you plant in the ground has 6 genes that can have different values that will give the plant different characteristics. You can then breed togheret different seeds of the same plant to get better genes and create artificially a better seed.

• G Growth gene, the plant will grow faster
• Y Yield gene, the plant will create more fruits
• H Hardiness gene, the plant will tolerate
• W Water gene, the plant will use more water to grow
• X Null gene, empty gene, does not proive any characteristics to the plant

Seeds can be planted on the ground or in a dedicated planter (Small Planter or Large Planter). The last method allows to create an efficient indoor controlled farm. Plants will grow fast and produce a lot of fruits only if they are in the perfect condition. You must keep in consideration the following environment factors:

• Light: plants will always need light, either sun light or artificial (Ceiling Lights or Industrial Light)
• Water: plants needs water to grow, if planter is dry use Sprinklers to keep it wet enough
• Ground: the planter may need some additional Fertilizer to provide a perfect soil
• Temperature: plants need a warm place to grow, if the temperature is too low use Electric Heater

There are multiple stages through which each plant evolves:

• Seed: a seed just planted on the ground
• Seedling: seed is growing to become a plant
• Sapling: the small plant is grow
• Crossbreed: plant has takes from its neighbours genes
• Mature: plant is maturing in order to star producing fruits
• Fruiting: plant is producing fruits
• Ripe: plant has finished to produce fruits that can be harvested
• Dying: plant is dying, all fruits are lost and only Plant Fiber can be harvested

When trying to achieve the perfect clone (which usually is Y Y Y G G G ) the most important phase is crossbreeding. During this stage a plant will look for adiacent plants of the same type and will combine their genes to create its own genes. Creating the plant with perfect genes will require to surrond a plant with 2 to 4 other plants that have the right genes.

Each of the 6 genes is combined individually with genes of the others plants. The combination rule is pretty simple. Green genes have a weight of 50 points, red ones have 60. The gene which has more points wins over the other, if two or more genes have the same points the gene is choosen randomly between them. With this method you can combine different plants to «replace» a bad gene with another.

To make an example, we want to combine Y W H X G Y with Y Y H G Y Y and G Y H H H Y .

Genes			Points					Result
First	Second	Third	Y	G	H	W	X
Y W H X G Y	Y Y H G Y Y	G Y H H H Y	100 100 0 0 50 150	50 0 0 50 50 0	0 0 150 50 50 0	0 60 0 60 0 0	0 0 0 0 0 0	Y Y H X Y/G/H Y

Here below you can experiment with genes without having to waste hours in game. Have fun and create your perfect plant and a huge farm base!

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Калькулятор генов в растения

Genetics Calculator

This simple and easy-to-use Rust genetics calculator provides good help for calculating your perfect genetics. For more info about the different genes, see below the calculator.

Also, check out our Rust Raid Calculator for planning the perfect raid and the Rust Aim Trainer to improve your shooting.

Genes

Each plant has 6 slots, and what type of genes a plant has are randomly generated as soon as they are planted. Do note that of all the genes, X and W genes are the bad ones. We don’t like them. If you want to cultivate a different strand of the gene, you will have to grow several plants beside each other in the hope that one of the genes will override the other by crossbreeding.

I strongly recommend planting one seed in each corner of a large planter box to not interfere with other seeds. Then you have the chance to get a good gene.

= Growth
Growth rate meaning how quickly the plant is growing, but this doesn’t fully mean the plant is healthy, so make sure to keep a good eye on the other genes to see how they do.

= Increased Yield
This means how much income you get once the plant finishes growing.

= Increased Hardiness
Increased Hardiness is how hard the plant is, but that doesn’t matter to you, the more useful information you would want is that the harder the plant is the more you get once eating it, this meaning health and hunger.

= Increased Water Intake
As stated above the Water Intake is one of the bad ones, this meaning if the water intake were to overrun the other genetics it would make the plant overall unhealthy and unbalanced. We don’t like this one.

= Null/Empty
Empty gene. Nothing much to say. We don’t like this one either.

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Калькулятор генов в растения

Tetrad Analysis Calculator

Tetrad Calculator is designed for tetrad analysis and demonstrations.

Unordered tetrads with four spores

Use this mode to calculate the recombination frequency between two genes. The map distance between two linked genes are calculated according to the following formula:

cM = 50 * (TT + 6 * NPD) / ( PD + NPD + TT ).

Here PD stands for parental ditype, NPD stands for non-parental ditype, and TT stands for tetratype. PD, NPD, and TT are calculated from the ascus genetic patterns.

Ordered tetrads with four spores

Use this mode to calculate the recombination frequency between the gene and the centromere. The gene-centromere distance is calculated using the following formula:

cM = 1/2 ( % of second division segregation.)

Ordered tetrads with eight spores

Unlike yeast, several species of ascomycete fungi have linear tetrads with eight ascospores. Analysis of asci types can be applied to determine the map distance between the locus and its centromere.

The first-division segregation has the following patterns:

AAAAaaaa
aaaaAAAA.

The second-division segregation has the following patterns:

aaAAAAaa
AAaaAAaa
aaAAaaAA
AAaaaaAA

Rare patterns that differ from a pattern by only one permutation of neighboring spores are classified as belong to the pattern.

Calculate from PD, NPD, and TT

Calculations are made directly from the counts of parental ditype (PD), non-parental ditype (NPD), and tetratype (TT).

To use demo, select a type and click on the Demo button.

1. Select type.
2. Click on «Enter Gene Names» to input gene names. Type in gene names and click on «Add».
3. To remove a gene name, type in the gene name, and click on the remove button.
4. Please note gene names are case sensitive.
5. Click on «Enter Parental Genotypes» to select for genotypes of parents.
6. Click on the spore diagrams in the left window to input ascus patterns. Click to change from one parental genotype to another or to unknown.
7. After finished inputing ascus patterns, click on «Go» to calculate map distances.

Thanks for using our software! Please let us know your suggestions and comments.

Copyright � 2002-2004 Chang Bioscience, Inc. All rights reserved.

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