Answer: the language of proteins, based on amino acids. ... RNA (tRNA) also assist in the protein-assembly process. ... In the upcoming animation, you will see a ... Nucleotides in the mRNA are read 3 at a time (as codons) by the ribosome. ... amino acid, which is added to the polypeptide chain in the correct position.
Explanation: Ribosomes provide a structure in which translation can take place. They also catalyze the reaction that links amino acids to make a new protein. tRNAs (transfer ... Each tRNA contains a set of three nucleotides called an anticodon. The anticodon of ... Rules like this ensure codons are read correctly despite wobble. Wobble ...To use a little molecular biology vocab, these antibiotics block translation. ... With no way to make proteins, the bacteria will stop functioning and, eventually, die. ... These relationships between mRNA codons and amino acids are known as the genetic ... During initiation, these pieces must come together in just the right way.
Answer:
Explanation:
the point (12,5) is on the graph, what do the coordinates tell you about the water in the bucket?
Answer:
This is because of the presence of a lot of sugar in the diabetic patient's blood stream.
Explanation:
As a test for the presence of simple sugars, Benedict's solution is usually added to the test sample and then heated.
A diabetic patient's body system has a lot of sugar flowing around in the blood stream. His body is unable to get this sugar into the cells for use, because the insulin produced by his pancreas is not enough. As a result his body system has a lot of sugar.
Consequently, whenever the patient urinates, the urine has a high sugar content as opposed to a normal person, whose urine has a low sugar content because of a normal functioning body system.
The high sugar content of the diabetic patient's urine is what gives an intense brick red precipitation with Benedict's reagent.
Verb- Mature
Noun- Trees
adjective- Thirty
adverb- about
The cell cycle is a four-stage process in which the cell increases in size (gap 1, or G1, stage), copies its DNA (synthesis, or S, stage), prepares to divide (gap 2, or G2, stage), and divides (mitosis, or M, stage). The stages G1, S, and G2 make up interphase, which accounts for the span between cell divisions.