I have been studying molecular dynamics simulation. This video shows very realistic movements and binding motions. Thank you for your amazing visualization.
so, couldn't brca1 and brca2 be extracted from an individual at birth, since at least one pair would not be mutated, usually, (thus useful for DNA repairs), then decoded, assembled, incapsulated in some lipid nanoparticle or whatever and shot back into the body at specific intervals to preserve the critical mass of such genes in order to be able to fight back mutated cells?
@@jaskay1309 tell me u think highly of urself without telling me u think highly of urself. it was a curious suggestion and the tone of ur response was not needed
it's not that easy. you can't randomly transfer BRCA genes in the genome (remember that you need only one cell to have BRCA mutated to get cancer) because there are specific regions where BRCA is located. Also, not everything you put on blood gets to all the cells. Think about the epidermis, which is not vascularized, and gets nutrients by diffusion.
![Felix "Unfair" | [Stray Kids : SKZ-PLAYER]](http://i.ytimg.com/vi/Oswujxm2Ag0/mqdefault.jpg)
the sound edit makes this process even more intriguing
I have been studying molecular dynamics simulation. This video shows very realistic movements and binding motions. Thank you for your amazing visualization.
Could you tell me what softwares are used to make this video?? such as Blender?
Thank you so much, that means a lot to me!
@@from_my_perspective Sure, the software used is Autodesk Maya and the structures are animated with nCloth. Compositing is done in After Effects,
Wow, thanks for sharing this!!! Exceptional explanation!
Thank you!
My child's Homework brought me here. Very interesting information.
Glad you found it useful
Please make more videos on gene mutation
so, couldn't brca1 and brca2 be extracted from an individual at birth, since at least one pair would not be mutated, usually, (thus useful for DNA repairs), then decoded, assembled, incapsulated in some lipid nanoparticle or whatever and shot back into the body at specific intervals to preserve the critical mass of such genes in order to be able to fight back mutated cells?
Tell me you haven't studied biochemistry without telling me you haven't studied biochemistry.
@@jaskay1309 tell me u think highly of urself without telling me u think highly of urself. it was a curious suggestion and the tone of ur response was not needed
it's not that easy. you can't randomly transfer BRCA genes in the genome (remember that you need only one cell to have BRCA mutated to get cancer) because there are specific regions where BRCA is located. Also, not everything you put on blood gets to all the cells. Think about the epidermis, which is not vascularized, and gets nutrients by diffusion.
Excellent
Have a goodnight production volunteer 😊
The DNA looks so tasty