If you are referring to cellular membrane, different types of injury vary according to the cell type. Some typical examples of agents that may cause damage to cellular membrane in people are:
Toxic drugs, solvents & metals; oxidative stress; gastric acid; cigarette smoke; autoimmune damage; excessive hormonal activity; physical trauma; heat/cold; too little or too many dietary elements; radiation; viruses; bacteria; parasites; fungi.
The scientific term for when cells swell and burst is "lysis". This can occur due to factors such as osmotic imbalance or physical damage to the cell membrane.
The unsaturated fatty acids in the phospholipid bilayer are the specific components of the cell membrane that are vulnerable to damage by free radicals. Free radicals can cause lipid peroxidation of these fatty acids, leading to membrane dysfunction and cell damage.
Factors that affect the rate of ultrafiltration include the size of the filtration membrane pores, the pressure gradient across the membrane, the concentration gradient of solutes across the membrane, and the surface area of the membrane available for filtration. Temperature and fluid viscosity can also influence ultrafiltration rate.
A core membrane is a protective layer surrounding the genetic material of a virus. This membrane helps shield the virus's genetic material from external factors and aids in its ability to infect host cells.
Hydrocortisone stabilizes lysosomal membranes by reducing the release of enzymes that can damage the lysosomal membrane. It also helps to decrease inflammation and limit the immune response that can contribute to lysosomal membrane damage. Overall, hydrocortisone's anti-inflammatory properties help to protect the lysosomal membrane and maintain its integrity.
it will damage
it dies.
The scientific term for when cells swell and burst is "lysis". This can occur due to factors such as osmotic imbalance or physical damage to the cell membrane.
The conjunctive is a thin membrane covering the eyeball, and protects it from damage.
A decrease in glucose production
The unsaturated fatty acids in the phospholipid bilayer are the specific components of the cell membrane that are vulnerable to damage by free radicals. Free radicals can cause lipid peroxidation of these fatty acids, leading to membrane dysfunction and cell damage.
Damage at the cellular level - such as damage to mitochondria or enzymes, damage to the DNA or damage to the cell membrane. If the damage is serious enough, this will lead to either apoptosis (programmed, controlled cell-death), or necrosis (spontaneous, unplanned death).
The rate of passive transport is regulated by factors such as the concentration gradient of the solute across the membrane, the surface area available for transport, the permeability of the membrane to the solute, and the temperature of the system. These factors affect the movement of molecules across the membrane without the use of energy.
Factors that affect the rate of ultrafiltration include the size of the filtration membrane pores, the pressure gradient across the membrane, the concentration gradient of solutes across the membrane, and the surface area of the membrane available for filtration. Temperature and fluid viscosity can also influence ultrafiltration rate.
The membrane is the most exposed part of the cell, it is chemically active and comes into contact with many chemicals. DNA here would be exposed to possible damage. Having the DNA enclosed in the nucleus and nuclear membrane better protects this very important "director" from potential damage.
It would depend on the extent of the damage to the cell membrane. If there is only minor damage to the membrane, the cell will produce the necessary proteins, fats and carbohydrates to repair the damage, and work towards returning to homeostasis. If the damage is extensive, the cell will lyse and die, as it is no longer able to maintain homeostasis.
It will cause damage in our body cells. This is Lethel.