 
									
								
									innate immunity
									
... immune response (which could be governed by T Cells). The principal functions of B cells are to make antibodies against antigens and eventually develop into memory B cells after activation by antigen interaction.  Produced in Bone marrow as immature B-Cells, then immature B-Cells move into spleen a ...
                        	... immune response (which could be governed by T Cells). The principal functions of B cells are to make antibodies against antigens and eventually develop into memory B cells after activation by antigen interaction.  Produced in Bone marrow as immature B-Cells, then immature B-Cells move into spleen a ...
									Transplants
									
...  Immunosuppression. Use immunosuppressive agents to blunt the recipient's immune response. Invariably required for all allografts. ...
                        	...  Immunosuppression. Use immunosuppressive agents to blunt the recipient's immune response. Invariably required for all allografts. ...
									The Lymphatic and System and the Immune System
									
... Cells of the Immune System 1. Lymphocytes include: a. T cells (T for thymus, where they mature) b. B cells (B for bone marrow, where they originate) c. Natural killer (NK) cells (less abundant) 2. Macrophages & Granulocytes: Phagocytic or "cell-eating” a. Neutrophils -- form an early line of defens ...
                        	... Cells of the Immune System 1. Lymphocytes include: a. T cells (T for thymus, where they mature) b. B cells (B for bone marrow, where they originate) c. Natural killer (NK) cells (less abundant) 2. Macrophages & Granulocytes: Phagocytic or "cell-eating” a. Neutrophils -- form an early line of defens ...
									9.2 Types of Antibodies and Vaccines ppt
									
... 1. How are nonspecific defenses different than specific defenses? 2. How does a fever help protect the body from pathogens? 3. Which types of nonspecific defense involves the pathogens being consumed by a human cell? 4. How do antibodies support the body’s immune system? ...
                        	... 1. How are nonspecific defenses different than specific defenses? 2. How does a fever help protect the body from pathogens? 3. Which types of nonspecific defense involves the pathogens being consumed by a human cell? 4. How do antibodies support the body’s immune system? ...
									Immune system II
									
... that react with one’s own proteins? ! Where do all the specific binding sites come from? ! How is the genetic information for that many proteins stored? ! How and why does the type of immunoglobulin change after reinnoculation? ! How are antibodies induced by the presence of antigen? ...
                        	... that react with one’s own proteins? ! Where do all the specific binding sites come from? ! How is the genetic information for that many proteins stored? ! How and why does the type of immunoglobulin change after reinnoculation? ! How are antibodies induced by the presence of antigen? ...
									(4) Adaptive Immune System and the Humoral Immune Response
									
... that the antibodies coat the bacteria cell. The constant regions stick out (called the FC region). The phagocytes have FC receptors. This interaction allows the phagocyte to roll over the pathogen and phagocytosis occurs. ...
                        	... that the antibodies coat the bacteria cell. The constant regions stick out (called the FC region). The phagocytes have FC receptors. This interaction allows the phagocyte to roll over the pathogen and phagocytosis occurs. ...
									Immunological Techniques in Research and Clinical Medicine
									
... • GLOBULIN levels (total protein minus albumin, or reported as globulin). Poor man’s test • IgG and subclasses 1‐4 • IgA • IgM • Isoagglutinins • Response to vaccination – pneumococcal, meningococcus ...
                        	... • GLOBULIN levels (total protein minus albumin, or reported as globulin). Poor man’s test • IgG and subclasses 1‐4 • IgA • IgM • Isoagglutinins • Response to vaccination – pneumococcal, meningococcus ...
									test question answers
									
... a. Skin and mucus membranes. b. Non-specific internal defenses. c. Immune response. d. All of the above. 14. The ___________ destroys the target cell through phagocytosis. a. Neutrophil b. Eosinophil c. Plasma cells d. Dentic cells 15. B cells and T cells work together to a. Circulate through blood ...
                        	... a. Skin and mucus membranes. b. Non-specific internal defenses. c. Immune response. d. All of the above. 14. The ___________ destroys the target cell through phagocytosis. a. Neutrophil b. Eosinophil c. Plasma cells d. Dentic cells 15. B cells and T cells work together to a. Circulate through blood ...
									Host Defense Against Infection
									
... - Innate immune system is phylogenetically conserved and is present in almost all multicellular organisms. - Recently-identified Toll-like receptors recognize specific patterns of microbial components and regulates the activation of innate immunity. ...
                        	... - Innate immune system is phylogenetically conserved and is present in almost all multicellular organisms. - Recently-identified Toll-like receptors recognize specific patterns of microbial components and regulates the activation of innate immunity. ...
									Answers - hrsbstaff.ednet.ns.ca
									
...  skin, mucus, cilia (nose hairs), eyelids, eye lashes, stomach acids and enzymes. 4. What is the role of the macrophage in the second line of defence in your body? Macrophages have two roles: to release a chemical to dilate blood vessels and increase blood flow and temperature and seek out and dest ...
                        	...  skin, mucus, cilia (nose hairs), eyelids, eye lashes, stomach acids and enzymes. 4. What is the role of the macrophage in the second line of defence in your body? Macrophages have two roles: to release a chemical to dilate blood vessels and increase blood flow and temperature and seek out and dest ...
									No Slide Title - Pegasus @ UCF
									
... (B-Cell immunity; Free Ig’s) Antibodies react to bacteria by: 1. Binding directly with bacterial toxins to neutralize them 2. Coat bacteria to enhance the phagocytosis be non-specifics components (monocytes, etc.,). Immunoglobulin subclass: IgG, IgA, IgM, IgD, & IgE ...
                        	... (B-Cell immunity; Free Ig’s) Antibodies react to bacteria by: 1. Binding directly with bacterial toxins to neutralize them 2. Coat bacteria to enhance the phagocytosis be non-specifics components (monocytes, etc.,). Immunoglobulin subclass: IgG, IgA, IgM, IgD, & IgE ...
									11.1 Immunity Notes - Twanow
									
... How is the difference between primary and secondary response related to vaccines? • We use vaccines – a dead or non-pathogenic version of a disease-causing microbe – to expose our bodies to the antigen. Our bodies go through a primary response and create memory cells. If we are exposed to the disea ...
                        	... How is the difference between primary and secondary response related to vaccines? • We use vaccines – a dead or non-pathogenic version of a disease-causing microbe – to expose our bodies to the antigen. Our bodies go through a primary response and create memory cells. If we are exposed to the disea ...
									SEPARATED BLOOD Plasma Platelets and white blood cells Red
									
... blood platelets. The concentrated platelets promote natural healing and reduction of inflammation. Collecting the Platelets The PRP process begins when a sample of blood is taken from the patient and placed into a centrifuge, where it is spun rapidly. The spinning process separates it into its compo ...
                        	... blood platelets. The concentrated platelets promote natural healing and reduction of inflammation. Collecting the Platelets The PRP process begins when a sample of blood is taken from the patient and placed into a centrifuge, where it is spun rapidly. The spinning process separates it into its compo ...
									Activity Overview Continued
									
... foreign invaders, see Figure 2. They present markers (antigens) from foreign invaders to the immune system. Natural killer (NK) cells seek and destroy any cells that have been invaded by bacteria or viruses. Macrophages are white blood Figure 2 cells that, moving like amoeba, can leave the Dendritic ...
                        	... foreign invaders, see Figure 2. They present markers (antigens) from foreign invaders to the immune system. Natural killer (NK) cells seek and destroy any cells that have been invaded by bacteria or viruses. Macrophages are white blood Figure 2 cells that, moving like amoeba, can leave the Dendritic ...
									The Immune System
									
... the following terminology and others that you may have learned: immune system, lymphatic vessels, lymph nodes, filter, lymph, B cells, lymphocytes, epitopes, Class II MHC receptor, phagocytes, spleen, ...
                        	... the following terminology and others that you may have learned: immune system, lymphatic vessels, lymph nodes, filter, lymph, B cells, lymphocytes, epitopes, Class II MHC receptor, phagocytes, spleen, ...
									Fall 2004 - Antelope Valley College
									
... _________________ ________________ is the selection process which destroys immune cells that could attack our own tissues. ...
                        	... _________________ ________________ is the selection process which destroys immune cells that could attack our own tissues. ...
									Immune System Notes
									
... chemicals called histamines, which begin inflammatory response - Capillaries dilate - Pyrogens released, reach hypothalamus, and temperature rises - Pain receptors activate - WBCs flock to infected area like sharks to blood ...
                        	... chemicals called histamines, which begin inflammatory response - Capillaries dilate - Pyrogens released, reach hypothalamus, and temperature rises - Pain receptors activate - WBCs flock to infected area like sharks to blood ...
									九十九學年度 生技 /生醫系免疫學期中考(II) 姓名: 學號: 周開平副教授
									
... 8. The homing of effector T cells to inflammatory sites is dependent upon the antigen presented by the endothelial cells in the inflammatory tissue. 9. CD40L and IFNγ of activated Th1 can activate macrophages for the elimination of intracellular infection. 10. CD40L of activated Th2 stimulates B cel ...
                        	... 8. The homing of effector T cells to inflammatory sites is dependent upon the antigen presented by the endothelial cells in the inflammatory tissue. 9. CD40L and IFNγ of activated Th1 can activate macrophages for the elimination of intracellular infection. 10. CD40L of activated Th2 stimulates B cel ...
									The Immune System
									
... rapidly, producing large #s of plasma cells and memory B cells Plasma cells release antibodies, proteins that recognize and bind to antigens Antibodies carried in the bloodstream to attack pathogens Once body is exposed to a pathogens, millions of memory B cells remember how to produce antibodies ...
                        	... rapidly, producing large #s of plasma cells and memory B cells Plasma cells release antibodies, proteins that recognize and bind to antigens Antibodies carried in the bloodstream to attack pathogens Once body is exposed to a pathogens, millions of memory B cells remember how to produce antibodies ...
									ANTIBODIES - immunology.unideb.hu
									
... • affinity maturation (stronger binding to epitopes) • isotype switch (different effector functions) • memory B cell formation (from improved clones) ...
                        	... • affinity maturation (stronger binding to epitopes) • isotype switch (different effector functions) • memory B cell formation (from improved clones) ...
									BIOL 256 SI, Molly 4/13/16 Exam 4 Review Distinguish among
									
... 1.) Distinguish among macrophages, neutrophils, mast cells, eosinophils, and natural killer cells. Macrophages – chief phagocytic cells/ wander through body in search of debris/ Kupffer cells Neutrophils – phagocytize microbes Mast cells – bind bacteria and ingest them Eosinophil – weak phagocytic a ...
                        	... 1.) Distinguish among macrophages, neutrophils, mast cells, eosinophils, and natural killer cells. Macrophages – chief phagocytic cells/ wander through body in search of debris/ Kupffer cells Neutrophils – phagocytize microbes Mast cells – bind bacteria and ingest them Eosinophil – weak phagocytic a ...
Phagocyte
 
                        Phagocytes are cells that protect the body by ingesting (phagocytosing) harmful foreign particles, bacteria, and dead or dying cells. Their name comes from the Greek phagein, ""to eat"" or ""devour"", and ""-cyte"", the suffix in biology denoting ""cell"", from the Greek kutos, ""hollow vessel"". They are essential for fighting infections and for subsequent immunity. Phagocytes are important throughout the animal kingdom and are highly developed within vertebrates. One litre of human blood contains about six billion phagocytes. They were first discovered in 1882 by Ilya Ilyich Mechnikov while he was studying starfish larvae. Mechnikov was awarded the 1908 Nobel Prize in Physiology or Medicine for his discovery. Phagocytes occur in many species; some amoebae behave like macrophage phagocytes, which suggests that phagocytes appeared early in the evolution of life.Phagocytes of humans and other animals are called ""professional"" or ""non-professional"" depending on how effective they are at phagocytosis. The professional phagocytes include many types of white blood cells (such as neutrophils, monocytes, macrophages, mast cells, and dendritic cells). The main difference between professional and non-professional phagocytes is that the professional phagocytes have molecules called receptors on their surfaces that can detect harmful objects, such as bacteria, that are not normally found in the body. Phagocytes are crucial in fighting infections, as well as in maintaining healthy tissues by removing dead and dying cells that have reached the end of their lifespan.During an infection, chemical signals attract phagocytes to places where the pathogen has invaded the body. These chemicals may come from bacteria or from other phagocytes already present. The phagocytes move by a method called chemotaxis. When phagocytes come into contact with bacteria, the receptors on the phagocyte's surface will bind to them. This binding will lead to the engulfing of the bacteria by the phagocyte. Some phagocytes kill the ingested pathogen with oxidants and nitric oxide. After phagocytosis, macrophages and dendritic cells can also participate in antigen presentation, a process in which a phagocyte moves parts of the ingested material back to its surface. This material is then displayed to other cells of the immune system. Some phagocytes then travel to the body's lymph nodes and display the material to white blood cells called lymphocytes. This process is important in building immunity, and many pathogens have evolved methods to evade attacks by phagocytes.
 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									