I was talking about how our understanding is still underdevelopment. If we want to find a certain sequence of code in the D.N.A strand we would have to decode the whole thing and then analyse it. It's as if were reading binary and we need to develop Hexadecimal, octdemical and programming languages such as C#/C++. In terms of technological advances, Unix still hasn't been development.albino boo said:The article is not talking about decoding DNA but the much simpler sequencing of DNA. In 521 years half of the polypeptide bonds that form the double helix of DNA would have broken. Seeing that each strand of DNA will not have all broken in the same place, its possible to work out what the original sequence was. After 6.5 million years the fragments of DNA are to small to reconstruct the original order that adenine, guanine, cytosine, and thymine bases came in. After 65 million years all that would be left would the individual bases, it would like trying to reconstruct a sand castle after driving a bulldozer over it. All the bits are there but they have lost all organisation so you cant fill the missing pieces from another source.mad825 said:Impossible? No. Too early to say.
Our very understand of DNA is still in it's infancy. While I'll agree that we cannot "clone" the current samples, we could replicate it by filling in the missing pieces with what we know if computer technology evolves.
Decoding D.N.A is still a fairly complex and costly process with margin errors.
What the article says is that after 6.5 million years is is no longer mathematically possible to know what base pair exited and what order they came in. Its does not matter how sophisticated you get you model because there is no longer enough structure left to work a model from. There is only so far extrapolate, its fine when the fragments are lager you can do pattern matching and frequency analysis to model the original structure with high degrees of certainty. When the fragments get to be so small that instead of there being only 1 structure but multiple structures have equal mathematical validity. After a certain point there is no way of telling which base formed a pair and which base pair was next to each other because there is not enough information left to determine that. Its the same as if you take an ice sculpture, left it melt and then try and determine what shape the sculpture was from the water. The melt water contains the vast majority of the water molecules the formed the sculpture but none of the information as to how it was organised. Its the same process with DNA but because at STP DNAs covalent bonds are 1000s of times stronger than Hydrogen bonds in water ice this process takes millions of years.mad825 said:I was talking about how our understanding is still underdevelopment. If we want to find a certain sequence of code in the D.N.A strand we would have to decode the whole thing and then analyse it. It's as if were reading binary and we need to develop Hexadecimal, octdemical and programming languages such as C#/C++. In terms of technological advances, Unix still hasn't been development.albino boo said:The article is not talking about decoding DNA but the much simpler sequencing of DNA. In 521 years half of the polypeptide bonds that form the double helix of DNA would have broken. Seeing that each strand of DNA will not have all broken in the same place, its possible to work out what the original sequence was. After 6.5 million years the fragments of DNA are to small to reconstruct the original order that adenine, guanine, cytosine, and thymine bases came in. After 65 million years all that would be left would the individual bases, it would like trying to reconstruct a sand castle after driving a bulldozer over it. All the bits are there but they have lost all organisation so you cant fill the missing pieces from another source.mad825 said:Impossible? No. Too early to say.
Our very understand of DNA is still in it's infancy. While I'll agree that we cannot "clone" the current samples, we could replicate it by filling in the missing pieces with what we know if computer technology evolves.
Decoding D.N.A is still a fairly complex and costly process with margin errors.
DNA itself is nothing more than a computer program designed to do a task so hopefully in the next hundred years, heavy computing tasks and our DNA understanding today would be a trivial task then allowing computer friendlily software to program and predict the outcome of structures of DNA just like MS Studios can program and predict the outcome of code.
You'd have much better chances starting with a chicken or an Ostrich. Also good luck!Li Mu said:I want to know why nobody has tried cross breading Komodo Dragons with crocodiles!
Or why not selectively bread crocodiles until you get a super giant monster one.
I might start a kickstarter to get the funding to do it myself.
Why would it be?Sure they won't be exactly like the T-rex but I think we can classify any 18 feet tall giant reptile as a dinosaur.
And the greatest threat to Mankind to ever exist.mad825 said:I was talking about how our understanding is still underdevelopment. If we want to find a certain sequence of code in the D.N.A strand we would have to decode the whole thing and then analyse it. It's as if were reading binary and we need to develop Hexadecimal, octdemical and programming languages such as C#/C++. In terms of technological advances, Unix still hasn't been development.albino boo said:The article is not talking about decoding DNA but the much simpler sequencing of DNA. In 521 years half of the polypeptide bonds that form the double helix of DNA would have broken. Seeing that each strand of DNA will not have all broken in the same place, its possible to work out what the original sequence was. After 6.5 million years the fragments of DNA are to small to reconstruct the original order that adenine, guanine, cytosine, and thymine bases came in. After 65 million years all that would be left would the individual bases, it would like trying to reconstruct a sand castle after driving a bulldozer over it. All the bits are there but they have lost all organisation so you cant fill the missing pieces from another source.mad825 said:Impossible? No. Too early to say.
Our very understand of DNA is still in it's infancy. While I'll agree that we cannot "clone" the current samples, we could replicate it by filling in the missing pieces with what we know if computer technology evolves.
Decoding D.N.A is still a fairly complex and costly process with margin errors.
DNA itself is nothing more than a computer program designed to do a task so hopefully in the next hundred years, heavy computing tasks and our DNA understanding today would be a trivial task then allowing friendlily computer software to program and predict the outcome of structures of DNA just like MS Studios can program and predict the outcome of code.
AKA; The digitalisation of DNA.