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I have an assignment for this SO I am 90% sure, but I know it's right.
Yes, because if you just draw conclusions before you make a hypothesis, it doesn't make sense, right? In order to get it right, you have to do the steps in ORDER. Otherwise, it'll be like cheating. You have to make sure it's done in the right order.
what dose this spell nortiace
The whole cell cycle is divided into 4 phases: (1) G1 phase = growth period, (2) S phase = synthesis of the DNA, (3) G2 phase = correct errors and prepare to divide, and (4) Mitosis. Synthesis phase is very critical because this is the stage where the whole DNA molecule is duplicated by the process of replication. G1 is the shortest period of all stages.
well they both need to be changed in order to have done the experiment right if it is nott right then do it again
DNA is a polymer, which means that is it composed of a series of similar units. In DNA, these units are called nucleotides, and are each made of a 5-carbon sugar, a phosphate group (including 4 oxygens), and a nitrogenous base. each nucleotide has one of the following bases: adenine, cytosine, guanine, and thymine. Being that DNA is in the form of a double-helix, the nucleotides on one strand need to attach to those on the other. They attach with hydrogen, but the bases tend to pair up as the following: adenine - thymine, cytosine - guanine
Watson and Crick established that A (adenine) is always found opposite T (Thymine), and G (Guanine) is always opposite C (cytosine). A-T, G-C. Therefore, reading from left to right, the complementary strand would be T C A G.
The double helix structure of DNA is unzipped in the middle, creating two separate strands. This process is called DNA replication, and it allows each strand to serve as a template for the creation of a new complementary strand.
DNA helicase is the main enzyme responsible for splitting the two strands of DNA (or 'unzipping' the DNA). This allows DNA polymerase to come along and copy the DNA, by joining free nucleotides (A, T, C, G) to the template strand of DNA. This is how a new strand of DNA is created.
The template and non-template strands of DNA are complementary.This means that if a T (thymine)occurs on one strand, there must be an A (adenine) in that position on the other strand, and that C (cytosine) is always opposite G (guanine), following the rules of complementary base pairing.There are other names for the two strands, but Googling them shows there is a lot of confusion out there! The terms "template strand" and "non-template stand" seem to be the only ones that everyone uses consistently. The template strand is the strand along which messenger RNA is synthesized, and has, of course, a base sequence complementary to that of the RNA.The term "gene" is often applied to the non-template strand, the argument being that the non-template DNA strand and the mRNA have the same base sequence (except that where DNA has T, RNA has U, uracil).In transcription, RNAP uses template strand to make a copy of mRNA. Complementary to template strand is the coding strand, which sequence is identical to mRNA sequence except for the substitution of U for T. Although the coding strand is not used as a template for common transcription events, it is called coding because its sequence is used as a copy in mRNA sequence. For the case of "sense", terminologically template strand is called antisense, and coding strand is called the sense strand.Template/non-coding/antisenseNon-template/coding/senseMany people confuse complementary sequences with palindromic sequence which you can find in restriction system recognition sequences. Although the template strand yields a sense (functional) sequence in mRNA and thus a properly-folded protein, the complementary strand of it, non-template strand upon being transcribed yields a totally different and non-functional protein. However in terms of transcription of palindrome, both strands yield the same mRNA sequence, thus the same protein.Coding strand of a particular gene can be on one of either two strands of DNA, and thus this applies to the opposite strand of the said strand for the non-coding strand. The direction of transcription on a double-stranded DNA depends on whether the upper or lower strand is being transcribed. Therefore on a linearised genome, transcription occurs to the left for certain genes and to the right for the remaining genes.
mRNA bases are put into the correct order during a process called transcription. Enzymes called RNA polymerases transcribe the DNA template into mRNA by matching complementary bases (A with U, G with C) to ensure the correct sequence. This process is essential for making a functional mRNA that can be used to produce proteins.
First, you must understand that a strand of mRNA, is the complement of one side (the left) of DNA. Basically, you take the one side of the DNA strand and complement it by using these pairs: Adenine:Uracil, Cytosine:Guanine, Thymine:Adenine. They are all usually abbreviated by their first letter. Second, in order to find the mRNA, you must understand the process of protein synthesis. If you know the process, then it should be clear that the mRNA is made from one side of the DNA strand during the transcription. It then moves out of the cell and into the cytoplasm to start translation.
The two angles, other than the right angle itself, MUST be complementary.
Two right angles are supplementary.
The complementary angles form a right angle with the shared ray.
Well a Right angle is 90 and a supplementary is 180. Complementary, I'm not sure ):
no they would be supplementary.
Yes.