This is where DNA is stored.

This tissue functions mainly as an exterior and interior lining.

[img src = http://blogs-images.forbes.com/daviddisalvo/files/2011/11/DNA.jpg]

This type of transport requires energy.

This phase of the cell cycle is where the cell grows, differentiates, and maintains normal functioning; it is also the longest phase of the cell cycle.

This organelle is where proteins are actually made.

This is where the energy in carbohydrates gets converted to ATP (cellular respiration).

This type of muscle tissue has intercalated disks in between the cells.

This type of passive transport requires the assistance of a carrier protein.

If a cell has 46 chromosomes prior to mitosis, each new daughter cell will have this many chromosomes.

This means that a solution's solute concentration is equal to the the solute concentration of the cell.

One version of this organelle functions to manufacture proteins, as well as permit proper protein folding. The other version manufactures lipids.

This pillar-like epithelial cell functions in secretion and absorption in the intestines.

This is the force exerted by a solution to stop osmosis.

Sister chromatids are pulled apart during this phase of mitosis; the 3rd phase.

During this stage of mitosis the nuclear membrane is broken down and the chromosomes condense.

This is where RNA is stored.

This type of connective tissue functions to store fat cells.

If you put a cell in this type of solution it will expand and may burst!

This is where sister chromatids are closely attached.

As observed in osmosis, molecules want to go to the solution with this level of concentration.

This organelle functions package proteins and deliver them in vesicles.

This layered flat type of epithelial cell functions to resist abrasion.

This type of active transport is the engulfment of solid materials.

This is the division of the cytoplasm.

This force allows molecules to be pushed through a membrane, permitting filtration.