They don't always divide, in multicellular organisms they typically just stop growing, in slime molds the cells can get more than a foot in diameter without dividing (they have tens of thousands of nuclei per cell).
When cells do not stop growing, it can lead to uncontrolled cell division and the formation of a tumor. This unregulated growth can disrupt the normal functions of tissues and organs, potentially leading to the development of cancer.
Cells in an embryo grow no larger than a certain size before they divide because as the cell grows, its surface area to volume ratio decreases. This leads to difficulties in nutrient exchange and waste removal, hindering the cell's ability to function properly. Dividing into smaller cells helps maintain an optimal surface area to volume ratio for efficient cellular processes.
Cells that are actively involved in secretion, such as glandular cells or cells of the pancreas, often possess a large number of Golgi bodies. These cells produce and secrete large amounts of proteins and other molecules that require processing and packaging before they can be released from the cell.
No, an elephant is not large because it has large cells.
They don't always divide, in multicellular organisms they typically just stop growing, in slime molds the cells can get more than a foot in diameter without dividing (they have tens of thousands of nuclei per cell).
daughter cells
Before a normal cell becomes too large, it will divide through a process called mitosis to form two identical daughter cells. This allows the cell to maintain a proper size and continue carrying out its normal activities efficiently.
yes, cells grow to an enlarged size and divide into two small cells (which each enlarge and divide as well). but the larger cells get, the more difficult it is for them to function and operate, so they remain within certain size boundaries, getting large enough to divide and halving, large enough to divide and halving.
When cells do not stop growing, it can lead to uncontrolled cell division and the formation of a tumor. This unregulated growth can disrupt the normal functions of tissues and organs, potentially leading to the development of cancer.
Cells in an embryo grow no larger than a certain size before they divide because as the cell grows, its surface area to volume ratio decreases. This leads to difficulties in nutrient exchange and waste removal, hindering the cell's ability to function properly. Dividing into smaller cells helps maintain an optimal surface area to volume ratio for efficient cellular processes.
Cancer cells divide excessively and invade other tissues. They do not have density dependence or anchorage dependence. Simply put, regular cells grow in an even layer while cancer cells grow tightly and on top of each other - an unnatural mass.
Meristematic tissues are cells or group of cells that have the ability to divide. These tissues in a plant comprise small, densely packed cells that can keep dividing to form new cells. Meristems have the following characteristics:The cells are small,The cells walls are thin,Cells have large nuclei,Vacuoles are absent or very smallThere are no intercellular spaces
Cells regulate their size through a process known as cell cycle control, which involves monitoring cell size and DNA content before proceeding to cell division. This control is mediated by various signaling pathways and checkpoints that ensure cells maintain an appropriate size for optimal function and survival. If cells grow too large, they can activate mechanisms such as apoptosis to eliminate themselves and prevent aberrant growth.
No, an elephant is not large because it has large cells.
Cells that are actively involved in secretion, such as glandular cells or cells of the pancreas, often possess a large number of Golgi bodies. These cells produce and secrete large amounts of proteins and other molecules that require processing and packaging before they can be released from the cell.
Prokaryotic cells spend a large amount of their time dividing and replicating their DNA to pass on genetic information to daughter cells. They also devote energy to carrying out essential metabolic processes, such as obtaining nutrients and generating energy through cellular respiration.