^that.
no crispr involved in making triploids. however to make the tetraploid you do need a chemical which can disrupt the normal meiosis, in such a way that you get unreduced gametes (sperm/eggs which have 2 copies of everything, instead of the usual single). but this is also not gmo, you are not directly altering the dna, you're just disrupting the normal cell dividion a bit so you get 1 cell where you'd normally get 2 cells out of it.
but gmo vs traditional breeding is also a bit of a grey area, more legal nitpicking than logic imo.
for example, if you know you can make a certain modification that has a benefit. if you do this modification with crispr, you now have a gmo plant, and you have to jump through all kinds of hoops and spend lots of money to get it approved.
but, you could achieve the same modification using EMS (chemical used for mutagenesis), which induces random mutations instead of targeted like crispr, and does not fall under gmo laws.
you can then use the TILLING method to find a plant with a random mutation in the desired location.
this costs way more space than crispr since you'd need to generate lots of mutants to find the one you want (often in the neighbourhood of 50000-100000 plants), but in the end the result is pretty much the same, except one plant falls under gmo laws, while the other plant doesn't.
no crispr involved in making triploids. however to make the tetraploid you do need a chemical which can disrupt the normal meiosis, in such a way that you get unreduced gametes (sperm/eggs which have 2 copies of everything, instead of the usual single). but this is also not gmo, you are not directly altering the dna, you're just disrupting the normal cell dividion a bit so you get 1 cell where you'd normally get 2 cells out of it.
but gmo vs traditional breeding is also a bit of a grey area, more legal nitpicking than logic imo.
for example, if you know you can make a certain modification that has a benefit. if you do this modification with crispr, you now have a gmo plant, and you have to jump through all kinds of hoops and spend lots of money to get it approved.
but, you could achieve the same modification using EMS (chemical used for mutagenesis), which induces random mutations instead of targeted like crispr, and does not fall under gmo laws.
you can then use the TILLING method to find a plant with a random mutation in the desired location.
this costs way more space than crispr since you'd need to generate lots of mutants to find the one you want (often in the neighbourhood of 50000-100000 plants), but in the end the result is pretty much the same, except one plant falls under gmo laws, while the other plant doesn't.