Cells that have differentiated still have most of their genes and they a) cannot express those genes. b) can still express those genes. c) cannot replicate any new cells. d) can become other types of cells.

Option B,

Reason:  A differentiated cell has all the abilities to form a complete organism based on the genetic information it carries, This remains peculiar as all the differentiated cells have all the important genetic information from its parent cell. Or in other words it can be said that the defferentiated cell has the ability to de-differentiate and produce progeny cells from a single cell that have the ability to produce an entire individual

The answer is option B.

Explanation:

A separated cell has every one of the capacities to frame an entire life form dependent on the hereditary data it conveys, This remaining parts exceptional as all the separated cells have all the imperative hereditary data from its parent cell. Or on the other hand at the end of the day it very well may be said that the differentiated cell can separate and deliver descendants cells from a solitary cell that can create a whole person

hydroxyl -oh

alcohols, always polar, can form hydrogen bonds with h2o molecules

carboxyl -cooh  

cargoxylic acids, has acidic properties which is a source of hydrogen ions, found in cells in ionized for with a charge of oh-1

carbonyl > co

ketone if within skeleton, aldehyde if group is at the end of skeleton, k & a may be structural isomers, it determines 2 sugars (ketose & aldose)

amino -nh2

amines, acts as a base, it can pick up h+ ions from surrounding solution, ionized with charge of 1+

methyl ch2

addition to rna/dna affects and gene expression

phosphate -opo3 ²⁻

organic phosphates, contributes to negative charge to, molecule that it is a part of, and potential to react with h20

sulfhydryl -sh

thiols, cross-linking stabilize the protein, and it is structure

you should wear a lead protective shield when having teeth x-rays

hope i

-lavira : )