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originally posted by: ManFromEurope
a reply to: neoholographic
I do not see how you come from "GTG means Valine" to "this is intelligent design".
One of many, many problems is that the DNA is not a codestring where you read from beginning to the end, or even start at lets say position 1,000,000 to 1,000,006 as the "source code" for Valine.
Because the "adresses" 1,000,000 to 1,000,006 are also part of the code for ptialina (another enzyme), but that started at 999,981 and goes up to 1,000,073. (All those are incredibly simplified examples which have nothing to do with reality, lies-for-children as they say, and no, you are not a child).
Double times or triple or whatever the often some data is "read" by being copied and used as the schemata to just another protein, enzyme or other building block of the body.
A code that works does not have to be programmed, it can happen by accident.
Life found ways to cope with random code fragments.
Abstract
Understanding genetic regulation is a problem of fundamental importance. Recent studies have made it increasingly evident that, whereas the cellular genetic regulation system embodies multiple disparate elements engaged in numerous interactions, the central issue is the genuine function of the DNA molecule as information carrier. Compelling evidence suggests that the DNA, in addition to the digital information of the linear genetic code (the semantics), encodes equally important continuous, or analog, information that specifies the structural dynamics and configuration (the syntax) of the polymer. These two DNA information types are intrinsically coupled in the primary sequence organisation, and this coupling is directly relevant to regulation of the genetic function. In this review, we emphasise the critical need of holistic integration of the DNA information as a prerequisite for understanding the organisational complexity of the genetic regulation system.
originally posted by: ManFromEurope
A code that works does not have to be programmed, it can happen by accident.
Life found ways to cope with random code fragments.
originally posted by: neoholographic
Your post is just hyperbole without any evidence. Dawkins says when you look at Biological systems the logical inference to make is that is was designed for a purpose.
Here's a quote from blind Darwinist and athiest Richard Dawkins.
“Biology is the study of complicated things that give the appearance of having been designed for a purpose.”
Here you have Dawkins admitting that when looking at biological systems the correct inference to make is that they were designed for a purpose. That's the logical and most reasoned inference to make when looking at biological systems.
I know when I go into a factory and see parts of a machine that work together and are the right size and shape they were designed by intelligence. You can't just say a happy, natural accident caused this.
This shows this is a blind belief. Where's the evidence?
Abstract
The digital linear coding carried by the base pairs in the DNA double helix is now known to have an important component that acts by altering, along its length, the natural shape and stiffness of the molecule. In this way, one region of DNA is structurally distinguished from another, constituting an additional form of encoded information manifest in three-dimensional space. These shape and stiffness variations help in guiding and facilitating the DNA during its three-dimensional spatial interactions. Such interactions with itself allow communication between genes and enhanced wrapping and histone-octamer binding within the nucleosome core particle. Meanwhile, interactions with proteins can have a reduced entropic binding penalty owing to advantageous sequence-dependent bending anisotropy. Sequence periodicity within the DNA, giving a corresponding structural periodicity of shape and stiffness, also influences the supercoiling of the molecule, which, in turn, plays an important facilitating role. In effect, the super-helical density acts as an analogue regulatory mode in contrast to the more commonly acknowledged purely digital mode. Many of these ideas are still poorly understood, and represent a fundamental and outstanding biological question. This review gives an overview of very recent developments, and hopefully identifies promising future lines of enquiry.
Abstract
Understanding genetic regulation is a problem of fundamental importance. Recent studies have made it increasingly evident that, whereas the cellular genetic regulation system embodies multiple disparate elements engaged in numerous interactions, the central issue is the genuine function of the DNA molecule as information carrier. Compelling evidence suggests that the DNA, in addition to the digital information of the linear genetic code (the semantics), encodes equally important continuous, or analog, information that specifies the structural dynamics and configuration (the syntax) of the polymer. These two DNA information types are intrinsically coupled in the primary sequence organisation, and this coupling is directly relevant to regulation of the genetic function. In this review, we emphasise the critical need of holistic integration of the DNA information as a prerequisite for understanding the organisational complexity of the genetic regulation system.
Humanity has a data storage problem: More data were created in the past 2 years than in all of preceding history. And that torrent of information may soon outstrip the ability of hard drives to capture it. Now, researchers report that they’ve come up with a new way to encode digital data in DNA to create the highest-density large-scale data storage scheme ever invented. Capable of storing 215 petabytes (215 million gigabytes) in a single gram of DNA, the system could, in principle, store every bit of datum ever recorded by humans in a container about the size and weight of a couple of pickup trucks. But whether the technology takes off may depend on its cost.
DNA has many advantages for storing digital data. It’s ultracompact, and it can last hundreds of thousands of years if kept in a cool, dry place. And as long as human societies are reading and writing DNA, they will be able to decode it. “DNA won’t degrade over time like cassette tapes and CDs, and it won’t become obsolete,” says Yaniv Erlich, a computer scientist at Columbia University. And unlike other high-density approaches, such as manipulating individual atoms on a surface, new technologies can write and read large amounts of DNA at a time, allowing it to be scaled up.