The flow of genetic information from dna to protein in eukaryotic cells is called the central dogma of biology.

(a) state two reasons gene regulation must be regulated in eukaryotes (5 points) and
(b) describe three processes that regulate gene expression in eukaryotes. in other words, what specific role does gene regulation accomplish in eukaryotes, and what are three methods of gene regulation. be sure to include names of molecules that are affected by these three methods. (5 points each).

Central dogma of Biology is - DNA to RNA to Protein. The gene expression is controlled  by gene regulation.

Explanation:

a) Two reasons why gene regulation must be regulated in eukaryotes are :

i. To remove the introns which are the non coding regions of the mRNA segment and make mature mRNA that will code for proteins.

ii. Gene regulation increases the flexibility and adaptability of a life form by permitting the cell to code for protein when required.

b) Three processes that regulate gene expression in eukaryotes are:

i. Transcription - Transcription is a main regulatory point for several genes. Group of transcription factors stick to specific DNA sequences in or around a gene and promote or repress its transcription into an RNA.

ii. RNA processing - cutting, capping, and poly-A tail addition to an RNA molecule can be regulated which can then exit from the nucleus. Various mRNAs can be made from the same pre-mRNA by the process of alternative splicing. Removal of introns also makes mRNA activated.

iii. Translation - Translation of an mRNA can be enhanced or inhibited by regulators. For example- miRNAs occasionally inhibit translation of their target mRNAs, instead of removing them.

the cells uses some of the atoms of the glucose molecules to atp molecules. the atoms of the glucose molecules will then be converted into energy which will be eventually stored in atp. the energy produced which are stored in atp are coming from the glucose’s chemical bonds.