Prokaryotic cells are small and do not have membrane bound organelles or a nucleus. Eukaryotic cells do have membrane bound organelles, are larger, and have an enclosed nucleus.
Eukaryotic animal cells possess membrane-bound organelles, such as the nucleus, mitochondria, and endoplasmic reticulum, which prokaryotic bacteria cells lack. These organelles allow for compartmentalization of functions within the cell and are essential for complex cellular processes.
Pathways in prokaryotic cells differ from eukaryotic cells in that the pathways used by prokaryotes are much more versatile. They have several different methods by which they can metabolize. The internal structure of a eukaryote is meant only for glycolysis.
Cells with organized nucleus and internal membrane structures are called eukaryotic cells. These cells are found in plants, animals, fungi, and protists. Eukaryotic cells have a defined nucleus that houses the genetic material and various organelles with specialized functions.
Yes. Prokaryotes are much too small to carry chloroplasts. It is theorized that chloroplasts were once prokaryotes that started a symbiotic relations with early eukaryotic cells, which explains why chloroplasts and mitochondria are found in the eukaryotic cell.
The theory is that the original Eukaryotic cell came about by the consumption of a Prokaryotic cell by another Prokayotic cell. This smaller cell was incorporated into the processes of the other - thus forming a symbiosis. This theory is supported by the fact that chloroplasts and mitochondria have their own DNA (separate from the nucleus).
Eukaryotic animal cells possess membrane-bound organelles, such as the nucleus, mitochondria, and endoplasmic reticulum, which prokaryotic bacteria cells lack. These organelles allow for compartmentalization of functions within the cell and are essential for complex cellular processes.
Eukaryotic cells.
All eukaryotic cells contain a variety of internal structures. These complex eukaryotic cells include most plants as well as most animals.
Pathways in prokaryotic cells differ from eukaryotic cells in that the pathways used by prokaryotes are much more versatile. They have several different methods by which they can metabolize. The internal structure of a eukaryote is meant only for glycolysis.
Cells with organized nucleus and internal membrane structures are called eukaryotic cells. These cells are found in plants, animals, fungi, and protists. Eukaryotic cells have a defined nucleus that houses the genetic material and various organelles with specialized functions.
Yes. Prokaryotes are much too small to carry chloroplasts. It is theorized that chloroplasts were once prokaryotes that started a symbiotic relations with early eukaryotic cells, which explains why chloroplasts and mitochondria are found in the eukaryotic cell.
The theory is that the original Eukaryotic cell came about by the consumption of a Prokaryotic cell by another Prokayotic cell. This smaller cell was incorporated into the processes of the other - thus forming a symbiosis. This theory is supported by the fact that chloroplasts and mitochondria have their own DNA (separate from the nucleus).
A prokaryotic cell has no internal membrane while the eukaryotic cell does. In a pro- cell, all of the organelles are together with no separation but with a eu- cell each organelle is separated in its own membrane. Think of it like this in a corny way: Pro = No. Eu= do Sorry, I can't think of any synonym to "yes" that rhymes with "eu." But, if you memorize Pro = No, than you'll have to remember that the eu- cell DOES have an internal membrane.
It is internal to the prokaryotic Cell wall as well as the eukaryotic Cell coat.
Eukaryote would be the correct answer, the exact question would be "What are complex cells that have a nucleus enclosed in the cell membrane called?"
and internal combustion engine and a gasoline engine are the same thing.
Compartmentalization creates separate environments for diverse processes within the cell. Its advantages include: damage is limited, minimizes non-specific interactions, and increases cellular efficiency.