Due to the calculations you make using your genetic code dictionaries, you must go backwards using the third letter of codon and then second and then first. Then, you have your answer for what the amino acid sequence would be for cga gaa guc. Then you just flip cga and guc, keeping gaa in the middle.
These will be the codes for arginine: CGU, CGC, CGA, and CGG. See the chart at the link below:
AGUCUUGGGCUUUGCCCC If the Adenine nucleotides were deleted then both the A and U nucleotides would be affected. Only the G and C would be allowed to code for the protein. GCGGGCGCCCC would be the resulting sequence. A codon is made of three nucleotides. So: GCG GGC GCC CC G CGG GCG CCC C GC GGG CGC CCC would be the only sequences that could result. This would be only three amino acids.
The information code into the DNA is used to code all the processes happening in a living beings and needed to sustain its life. Proteins production is a particularly important class of such processes, due to the importance of proteins in the biological mechanism. Since a protein is essentially a sequence of 20 base amino acids, the codes driving proteins synthesis inside the cell is a transcription of the amino acid sequence characterizing the protein. When the protein is produced in the controlled chemical environment inside the cell, the amino acids chain will configure in the correct stereographic structure driven by the need of minimizing the molecule free energy so to constitute a functional biomolecule.In eukaryote (the cells of more evolved beings), proteins are synthesized into the ribosomes, the specialized cell organelles. Even if the process is quite complex, in a first approximation it can be described as follows. The sequence of amino acids encoded in a DNA gene is translated into a mRNA that is used by the ribosome to assembly the correct sequence of amino acids while they are conveyed to the synthesis site by tRNA.Each amino-acid is coded by a set of three nucleobases, called codon, thus the mRNA is read codon by codon during the protein synthesis. Specific codons, called START and STOP , are used begin and to stop the synthesis. Since four nucleobases are available, there are 64 possible codons, so that each amino acid and the START and STOP signals are coded by more than one codon. The coding Table used in protein synthesis is reported in the following TableAmino acidCodonsAlaGCT, GCC, GCA, GCGArgCGT, CGC, CGA, CGG, AGA, AGGAsnAAT, AACAspGAT, GACCysTGT, TGCGlnCAA, CAGGluGAA, GAGGlyGGT, GGC, GGA, GGGHisCAT, CACIleATT, ATC, ATALeuTTA, TTG, CTT, CTC, CTA, CTGLysAAA, AAGMetATGPheTTT, TTCProCCT, CCC, CCA, CCGSerTCT, TCC, TCA, TCG, AGT, AGCThrACT, ACC, ACA, ACGTrpTGGTyrTAT, TACValGTT, GTC, GTA, GTGSTARTATGSTOPTAA, TGA, TAG
Transcription is the process in which DNA is converted to RNA by transcription factors. Translation is the process in which RNA is converted to proteins. The easiest way to remember this is by thinking of DNA as American-English and RNA as british-English. Anyone who knows either one of the languages can easily convert one of them to the other. Toilet becomes the loo. Sidewalk becomes the pavement, etc. This is because DNA has A-T (adenosine-thymin) and C-G (cytosine-guanine) while RNA has A-U (adenosine-uracil) and C-G (cytosine-guanine) bonds. The language is almost the same. From RNA to proteins however, the entire code, structure and function is altered beyond recognition. This is why you call it translation. The conversion of one language to a completely different one - like british to Chinese for example. So, the product of transcription is RNA and the product of translation is proteins.
TGCA
AGG, AGA, CGA, CGC, CGU, and CGG specify arginine.
These will be the codes for arginine: CGU, CGC, CGA, and CGG. See the chart at the link below:
G-A-T-T-A-G-C-C-T-A-A-G-G-T-C-GDNA base-pairing rulesAdenine - ThymineCytosine - GuanineRNA base-pairing rulesAdenine - UracilCytosine - Guanine
AGUCUUGGGCUUUGCCCC If the Adenine nucleotides were deleted then both the A and U nucleotides would be affected. Only the G and C would be allowed to code for the protein. GCGGGCGCCCC would be the resulting sequence. A codon is made of three nucleotides. So: GCG GGC GCC CC G CGG GCG CCC C GC GGG CGC CCC would be the only sequences that could result. This would be only three amino acids.
is cgc ugc approved
cgc landran
cgc is better
The population of CGC Japan is 334.
aug aaa aag aac uau uuc cgc gag ggc uau ggg ggc aac aag uua
CGC Japan was created on 1973-10-27.
he old dogma of molecular biology held that for every gene there was one protein (and therefore one mRNA). This is not the case, as we now know. There are many different mRNAs that can arise from a single gene, depending on splicing, promoting and enhancing regions etc. The answer to the first question is 'it depends'-on the gene, the cell conditions etc. Introns were thought of as junk DNA, but they now appear to play at least a minor regulatory role in many cases, as well as influencing splicing etc. Amino acids can be coded for by a number of different codons (sets of 3 nucleotides, the unit with which the DNA sequence is read and interpreted) due to the DNA sequence redundancy. This means that many of the amino acids found in a chain may have been coded by any of (up to 6) different codon sequences, so you can't tell exactly the DNA sequence just from the amino acid sequence. (e.g. Argenine is coded by CGI, CGC, CGA and CGG, which means you can't tell which sequence on the DNA coded for the argenine, it could be any of the four possible choices)
yes cgc is approved byn ugc & aicte