<div align="center">So, lately I've been reading a lot of questions about the genetics game and how it works, so I decided to create a guide on how I play the genetics game, and almost always getting a perfect score.

This guide will show you, through images the process I take to achieve this.

First and foremost, the most important thing is that we should know each gene and their alleles:

Extension: Alleles; E dominant, and e recessive; Possibleoutcomes; EE, ee and Ee

Agouti: Alleles; A dominant, At and a recessive; Possible outcomes; AA, aa, AtAt, Aa, AAt, and Ata, A is dominant over At and a, At is dominant over a, alleles order in dominance.

Crème: Alleles; Ccr dominant, and C recessive; Possible outcomes; CcrCcr, CC and CcrC

Roan: Alleles; Rn dominant, and rn recessive; Possible outcomes; RnRn, rnrn and Rnrn

Dun: Alleles; D dominant, and d recessive; Possible outcomes; DD, dd and Dd

Pearl: Alleles; Prl dominant, and prl recessive; Possible outcomes; PrlPrl, prlprl and Prlprl

Silver: Alleles; Z dominant, and z recessive; Possible outcomes; ZZ, zz and Zz

Champagne: Alleles; Ch dominant, and ch recessive; Possible outcomes; ChCh, chch and Chch

Grey: Alleles; G dominant, and g recessive; Possible outcomes; GG, gg and Gg

White: Alleles; W dominant, and w recessive; Possible outcomes; WW, ww and Ww

Tobiano: Alleles; To dominant, and to recessive; Possible outcomes; ToTo, toto and Toto

Splash White: Alleles; Spl dominant, and spl recessive; Possible outcomes; SplSpl, splspl and Splspl

Sabino: Alleles; Sb dominant, and sb recessive; Possible outcomes; SbSb, sbsb and Sbsb

Rabicano: Alleles; Rb dominant, and rb recessive; Possible outcomes; RbRb, rbrb and Rbrb

Frame: Alleles; O dominant, and o recessive; Possible outcomes; OO, oo and Oo

Leopard Complex: Alleles; Lp dominant, and lp recessive; Possible outcomes; LpLp, lplp and Lplp

PATN-1: Alleles; PATN-1 dominant, and patn-1 recessive; Possible outcomes; PATN-1PATN-1, patn-1patn-1 and PATN-1patn-1

PATN-2: Alleles; PATN-2 dominant, and patn-2 recessive; Possible outcomes; PATN-2PATN-2, patn-2patn-2 and PATN-2patn-2

Things to note:

Brindle is not a gene, including it will count as an incorrect answer.

Alleles order in dominance, so the dominant allele will always come first when writing the gene, in the case of Agouti with 3 possible alleles, A will always come before either At and a, and At will always come before a.

Watch your capitalization, one wrong case and that entire line is incorrect

Homozygous is the term used for when both genes are the same, Homozygous Dominant is where both alleles are the Dominant allele such as EE, Homozygous recessive is where both alleles are the recessive allele such as ee, Heterozygous is where one allele is the dominant and one is the recessive such as Ee

Now that is over and done with,we can begin the process of solving this game

First, we will need two horses to play the game with, here is two that I got the day of making this guide:

https://s1.postimg.org/8cehnl6wlb/Parents.jpg
these two horses have 54 possible genetic combinations

Next we will need to open up a text document, either word or notepad or another writing software will work, itÂ’s just a lot easier then using the HEE text box.Here is my usual setup:
https://s1.postimg.org/70u3mbvxcv/Snip.jpg

Okay so, we have our set up ready, time to copy and paste the first example line into the document, this will be our base:
https://s1.postimg.org/3obdryp7y7/Capture.jpghttps://s1.postimg.org/1syszcexi7/Capture_2.jpg


Go through and looking off the genes, make the corrections for at least 1 possibility of each gene, for one line of text, in this case this:

EE,AA,CcrCcr,rnrn,dd,PrlPrl,zz,Chch,gg,ww,toto,splspl,SbSb,RbRb,oo,lplp,PATN-1patn-1,PATN-2patn-2

Should be:

EE,aa,CcrCcr,rnrn,Dd,PrlPrl,zz,chch,gg,ww,toto,splspl,sbsb,rbrb,oo,lplp,patn-1patn-1,patn-2patn-2

https://s1.postimg.org/4otrbngfe7/Parents_1.jpg
Looking at this, the first gene has variables, I always do them in order. In this case we have heterozygous Ee on both parents, so the possibilities are EE, ee,and Ee so we put these changes into our line.

https://s1.postimg.org/6wdb9ddbgv/image.jpg
there we have the 3 possibilities for the first gene along with a set combination of the rest, now we move on to the second gene

https://s1.postimg.org/41tkoaqcb3/Parents_2.jpg
In this case gene two has no variables, so we do not change anything.

The same thing happens with genes 3-15, where in this situation they have no variables,so we keep those the same.

https://s1.postimg.org/86p60er5jz/Parents_15.jpg
now we have Leopard Complex, which much like the first gene, both parents are heterozygous Lplp, so the possibilities are LpLp, lplp, and Lplp,

So, copy and paste the possibilities from the first gene and paste it a space down to keep it separated for now for an easier view of which lines you need to change.

https://s1.postimg.org/96lul782gf/image.jpg
now in this case as this gene has 2 other possibilities from the one we had set in the original we need to have another set of the 3 first variables,

https://s1.postimg.org/3kwvliahlr/image.jpg
now go through and in the first paste,change the leopard complex gene to the second possible combination, and the second paste as the third

https://s1.postimg.org/4oyv2wyexr/image.jpg
you can now get rid of the spaces between these, as these are now the set you will use for the next gene

https://s1.postimg.org/3f8paruve7/image.jpg
Our next gene is PATN-1, once again in this case we have double heterozygous, so we need to copy and paste twice, so we have sections for each of our possible outcomes PATN-1PATN-1, patn-1patn-1and PATN-1patn-1

https://s1.postimg.org/7odfcxjcbj/image.jpg
repeat; in the first paste,change the PATN-1 gene to the second possible combination, and the second paste as the third

https://s1.postimg.org/80tc2rb88f/image.jpg
you can now get rid of the spaces between these, as these are now the set you will use for the next gene

https://s1.postimg.org/8fcj7slr1r/image.jpg
our next gene is PATN-2, in this case one parent is heterozygous but the other one is homozygous recessive, so our possible outcomes are patn-2patn-2 and PATN-2patn-2, as we have patn-2patn-2 in our original we only need to paste once and change it to PATN-2patn-2.

https://s1.postimg.org/4195n86gjj/image.jpg
https://s1.postimg.org/3u5xrskqjj/image.jpg

now get rid of the spacing

https://s1.postimg.org/9ue3wiu4i7/image.jpg

we are now done, is some cases you will have a lot more pasting, sometimes less, you just need to look at the alleles and the variables

a good way to check that you are most likely correct is your word document should say the number of words, this number should be the same as the number of possible combinations you saw at the beginning

https://s1.postimg.org/548uy422pb/image.jpg

REMEMBER:
watch your casing

take your time

double heterozygous genes will always have 3 possible combinations, so you must double paste

homozygous to heterozygous will always have 2 possible combinations, so you must paste once

Only thing I see is the White. Not sure how genetics practice handles LWO genetic combinations.

Another good thing to note that your number of lines should do the following when going through the line

Agouti is your black sheep in the case of genes because of the fact that it has 3 possible alleles A, At and a. A is the most dominant, At is dominant over a, and a is recessive.

<div align="center">And FINALLY! here we go, I full video guide:
https://www.youtube.com/watch?v=6gVk_YlwvXg

You are a god. Thank you so much <3

Hopefully this is still active.