A good way to understand the function of a certain tissue or organ is to imagine what would happen if it suddenly stopped functioning. Suppose you could magically remove each of the structures listed below from an apple tree, leaving all of its other tissues intact. In each case, what would happen to the tree?

-Apical meristems - The tree would be unable to growth in length, (e.g. branch tips and root tips would stop growing). It could still grow in width.

-Stomata - No gas exchange would occur in the leaves; eventually photosynthesis and respiration would both stop.

-Parenchyma cells - No photosynthesis could occur in the leaves; no protein would be stored in the apples.

-Root hairs - The tree would have much less surface area to take up water and nutrients from the soil. Its shoot system would probably die.

-Cuticle - The leaves would lose a large amount of water.

-Cork - The trunk would lose its major defense against insects and pathogens, and would also start losing a large amount of water.

-Vessel elements - The tree would be unable to transport water up the trunk.

-Sieve plates - The tree would no longer be able to transport materials through the phloem. Sap (containing carbohydrates made by the leaves) would cease to flow down the trunk, and the roots would soon become starved of fuel.

-Of all of these structures, the only one that would not kill the tree is probably the loss of apical meristems. Loss of apical meristems simply prevents growth, but doesn't interfere with key physiological processes. (In fact, pruning of fruit trees is exactly this - removal of the apical meristems.)

Explanation:

The plant body is organized and constructed in a distinctive way

you are certainly talking about this picture:

a: is the label of the white square, it is showing the  replication fork, formed by helicase (d) ==> so it is the site of dna separation and replication 

b: is a new dna brand that is following directly the replication fork, so it is continuous ==> built continuously from 5' to 3

c: dna polymerase cannot replicate dna on its own, it needs the of their proteins, and one of them plays the role of a clamp which fixes  the dna with the dna template and increases  the processivity of the enzyme. ==>   stops polymerase from falling off the  template.

d: is the enzyme responsible for forming the replication fork (helicase) ==> unwinds and separates dna into two strands

e: is the delayed strand, it is built  in the opposite sense of the helicase, so dna will be built in fragments ==> built  fragments from 5' to 3 joins

and finally f: is the enzyme that builds  the new dna strand (dna polymerase) ==>   adds nucleotides to make a new dna helix.

credit: gradman555p98x9p

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you can have just about every answer you can think of