The “Central Dogma” of molecular science refers to the exchange of hereditary data such as DNA converted into a protein. This gives detailed clarifications of how DNA codes from RNA, which codes for different proteins in the body. DNA is the atom in living things, which convey hereditary material and dependably passes it from the parents to their offspring. Essentially, it has guidelines fundamental for the development of RNA and proteins, which frame an entire structure of the body and preform a range of capacities. Sub-atomic machines are continually interpreting data in DNA and utilizing it to create proteins. As DNA makes RNA it is separated into two unique procedures which enables DNA to go on. The Central Dogma gives the essential systems to how hereditary data streams from a DNA arrangement to proteins inside the cell. DNA stands for Deoxyribonucleic Acid; its sugar is Deoxyribose. Which is a type of sugar found only in the DNA. It is made from various bases of nucleotides, Adenine (A), Thymine (T), Cytosine (C), and Guanine (G). The bases on one strand of DNA shape base sets with another strand of DNA to a structure known as the double helix. The base pairs that can be framed to match are limited; Adenine (A) can combine with Thymine (T), and Cytosine (C) can combine bases with Guanine (G). Every nucleotide is made up of a spine that is made out of phosphates and sugar and nitrogenous bases. The DNA is separated into smaller pieces, which are called chromosomes. Each Individuals has a total of 23 sets. RNA is similar to DNA except that it contains ribose as its sugar and it has the nitrogenous base called Uracil (U) which is combined with Adenine (A). Each nucleotide along an DNA strand has A, T, G, or C as its base, and each nucleotide along an RNA strand has A, G, C, or U as its base. An RNA consists of having a single strand while DNA has double strands. Their two phases that takes place as DNA is converted into a protein; Transcription and Translation. The first phase is transcription. Transcription is the synthesis of RNA using information from the DNA. During transcription DNA is reduplicated into an RNA. A group on enzymes and proteins bind to the promoters of a gene, then it unzips the DNA double helix. The enzyme RNA polymerase then uses one of the DNA strands to make an RNA replicate of that one gene. This gene copy that contains the instruction to make one protein is called mRNA or messenger RNA, this carries a genetic message from the DNA to the protein synthesizing machinery of the cell. After the mRNA is made, it is cut down to its final size and shipped out from the nucleus to the cytoplasm. Once the mRNA has reached the cytoplasm, translation then takes place. Translation is the synthesis of a polypeptide using the information in the mRNA. During this stage, the cell must translate the nucleotides sequence of an mRNA molecule into the amino acid sequence of polypeptides. Messenger RNA is then transported to the to the cytoplasm. It is “translated” to produce the correct order of amino acids in a protein. To start the process of translation there should be an understanding of the key roles of the RNA that takes place during translation from; rRNA and tRNA. Ribosomal RNA (rRNA) is the RNA molecules associated with other proteins to form the ribosomes. Each ribosome can accept two tRNAs at a time they also carry the amino acids. Transfer RNA (tRNA) then transfers small RNA molecules that carry a specific amino acid at one end and anticodon region that recognizes and binds mRNA at the other end. The tRNA that binds to the mRNA codon determines what amino acids is added to the protein chains. The three RNAs all work together to turn information from DNA into proteins. They work together in three different steps; Initiation, Elongation, and Termination. There are three different steps in translation that the three RNAs work smoothly together to make a protein. Initiation starts off the process, during this stage mRNA enters the cytoplasm and becomes associated with ribosomes. The tRNAs, carrying a specific amino acid then pairs with the mRNA codons inside the ribosomes. Messenger RNA (mRNA) codons and transfer (tRNA) anticodons determines the order of amino acids in a protein. This then leads too Elongation. During this phase ribosomes begin to move along the mRNA, while the tRNA transfers its amino acid to the growing protein chain, producing the protein, codon by codon. Lastly, termination takes place, this stage is when the ribosomes hits stop codons; UAA, UGA, or UAG. Once these stop codons are hit the ribosome falls apart which are now known as proteins.