B cells show a specific immune response by recognizing specific antigens through their unique B cell receptors (BCRs). Upon encountering their corresponding antigen, B cells become activated, leading to their proliferation and differentiation into plasma cells, which produce antibodies specific to that antigen. These antibodies help neutralize pathogens and mark them for destruction by other immune cells. Additionally, some B cells differentiate into memory B cells, providing long-term immunity against future infections by the same pathogen.
White blood cells are produced by the body in response to an abnormal organism inside the body. An increased WBC count would then indicate infection, with an increase in specific types of WBCs indicating different types of infections.
White blood cells will increase in number when you are sick. There are several types. Each will respond differently to the type of infection. One type is the eosinophil and it will show increased numbers due to allergies. The normal number of WBCs in the blood is 4,500-10,000 white blood cells per microliter (mcL).
To determine whether the cells depicted are plant or animal cells in mitosis, one can look for specific characteristics. Animal cells typically exhibit a cleavage furrow during cytokinesis, where the cell membrane pinches inward. In contrast, plant cells form a cell plate that develops into a new cell wall. If the cells show a cleavage furrow, they are likely animal cells; if they show a cell plate, they are plant cells.
I'm unable to show diagrams, but I can describe white blood cells. They are part of the immune system and help fight infections and diseases. There are different types of white blood cells, including neutrophils, lymphocytes, monocytes, eosinophils, and basophils, each with its own unique role in protecting the body.
Plants are organisms that will show a clear response if they are kept away from sunlight. Without sunlight, they are unable to undergo photosynthesis and will eventually wilt and die.
All cells have specialized proteins on their surface that show a sampling of the contents of the cell to certain immune cells, which recognize these samples as self or foreign (i.e. intracellular pathogens) and kill infected cells.
Antibodies are non specific! That is why antibody testing does not signify anything specific except that an immune response is on progress. Processed flour will give you an immune response and show elevated liver enzymes that are typical during times of infection
MHC markers- which are proteins that present or "show" antigens like bacteria to other immune cells. Instead of being targets, they are helper proteins of the immune system.
White blood cells are produced by the body in response to an abnormal organism inside the body. An increased WBC count would then indicate infection, with an increase in specific types of WBCs indicating different types of infections.
T cells are made in the red bone marrow but specialize into t cells outside the marrow in the thymus, hence the T in Tcells. two types of t cells are cytotoxic effector cells and helper t cells. think of cytotoxic t cells as the drunk guy in the bar that wants to fight everyone (and is a good fighter by the way) and the helper t cells are the friends who show him who to fight and provides him with the weapons to fight. CTC can attach to and destroy cells carrying antigens Helper T cells 1. present antigen to CE cells and plasma B cells to activate them into action and 2. produe powerful immune protein called cytokins which can stimulate the lymphocyte cell disvision.
Graded drug response to chloroquine refers to the varying degrees of sensitivity or resistance that different organisms or cells exhibit in response to chloroquine treatment. Some organisms or cells may show a high sensitivity to chloroquine, while others may demonstrate resistance, leading to a graded response depending on the specific characteristics of the organism or cell being treated.
its process our body to protect the cells
No, not even close. White blood cells are cells that circulate in your blood and lymph. B-cells are a type of white blood cell that start producing antibodies when they are shown what the antibody is needed for. For example, if your body has a bacterial infection, other cells 'pick up' debris from these bacterial cells, and 'show' these debris pieces to the B-cells. These B-cells then transform into 'plasma cells', which start producing antibodies specific for that particular bacteria. Antibodies basically 'stick' to any of that same bacteria that they find around your body, acting as a flag, so that your other immune cells can find it and attack it.
In an experiment, a positive control is used to show that the experiment can detect a specific response, while a negative control is used to show that the experiment does not detect a response when it should not.
T cells and B cells are both lymphocytes produced in the thymus gland and act in the immune system. The T cells are mainly used in identifying antigens, while the B cells are used in the production of antibodies.
Vaccinations 'show' proteins to B-cells, which then produce antibodies specific to those proteins.
The r and b lymphocyte groups mature in the primary lymphoid organs, which are the bone marrow for B cells and the thymus for T cells. During maturation, they undergo a series of genetic rearrangements to generate a diverse pool of receptors that can recognize a wide range of antigens. This process allows them to differentiate into functional immune cells capable of responding to specific pathogens.