1,069 membrane receptor illustrations & vectors are available royalty-free.

Hormones bind to receptors on the plasma membrane. The hormone itself is the first messenger. Binding to the receptors activates a second messenger inside the cell. The second messenger causes intracellular effects. Membrane receptor vectors
Hormones bind to receptors on the plasma membrane. The hormone itself is the first messenger. Binding to the receptors activates a second messenger inside the cell. The second messenger causes intracellular effects. Membrane receptor vectors
When a hormone outside of a capillary, it can act on a target cell. A steroid hormone is capable of crossing through the cell membrane of the target cell. A protein hormone attaches to the cells membrane and activates a receptor that releases, in turn, a messenger within the cell. Membrane receptor vectors
When a hormone outside of a capillary, it can act on a target cell. A steroid hormone is capable of crossing through the cell membrane of the target cell. A protein hormone attaches to the cells membrane and activates a receptor that releases, in turn, a messenger within the cell. Membrane receptor vectors
Artistic impression of a plasma membrane of a human cell. The plasma membrane is a bilayer composed of phopholipids in which lots of transmembrane and surface proteins reside. Its function is to separate the intracellular content. Membrane receptor illustrations
Artistic impression of a plasma membrane of a human cell. The plasma membrane is a bilayer composed of phopholipids in which lots of transmembrane and surface proteins reside. Its function is to separate the intracellular content. Membrane receptor illustrations
Dendritic cells vector illustration. Anatomical labeled scheme with progenitor, immature, nucleus and membrane extensions. Antigen and receptor diagram. Microscopic closeup with biological structure. Membrane receptor vectors
Dendritic cells vector illustration. Anatomical labeled scheme with progenitor, immature, nucleus and membrane extensions. Antigen and receptor diagram. Microscopic closeup with biological structure. Membrane receptor vectors
Cell-surface receptors, also known as transmembrane receptors, are cell surface, membrane-anchored, or integral proteins that bind to external ligand molecules. This type of receptor spans the plasma membrane and performs signal transduction, converting an extracellular signal into an intracellular signal. Membrane receptor illustrations
Cell-surface receptors, also known as transmembrane receptors, are cell surface, membrane-anchored, or integral proteins that bind to external ligand molecules. This type of receptor spans the plasma membrane and performs signal transduction, converting an extracellular signal into an intracellular signal. Membrane receptor illustrations
Membrane proteins. integral, and Peripheral membrane proteins, Single-pass, and Multi-pass transmembrane α-helix, Lipid-anchored protein. Vector illustration for biological, science and educational use. Membrane receptor vectors
Membrane proteins. integral, and Peripheral membrane proteins, Single-pass, and Multi-pass transmembrane α-helix, Lipid-anchored protein. Vector illustration for biological, science and educational use. Membrane receptor vectors
Cell-surface receptors, also known as transmembrane receptors, are cell surface, membrane-anchored, or integral proteins that bind to external ligand molecules. This type of receptor spans the plasma membrane and performs signal transduction, converting an extracellular signal into an intracellular signal. Membrane receptor illustrations
Cell-surface receptors, also known as transmembrane receptors, are cell surface, membrane-anchored, or integral proteins that bind to external ligand molecules. This type of receptor spans the plasma membrane and performs signal transduction, converting an extracellular signal into an intracellular signal. Membrane receptor illustrations
Bio signaling cell communication network system, micro biological anatomy labeled diagram vector illustration with receptor, transduction and response activity. Cell cross section scheme. Membrane receptor vectors
Bio signaling cell communication network system, micro biological anatomy labeled diagram vector illustration with receptor, transduction and response activity. Cell cross section scheme. Membrane receptor vectors
Anatomy of the Lysosome: Hydrolytic enzymes, Membrane and transport proteins. This organelle use the enzymes to break down and digest food particles, engulfed viruses or bacteria in the cell. Vector diagram for medical use. Membrane receptor vectors
Anatomy of the Lysosome: Hydrolytic enzymes, Membrane and transport proteins. This organelle use the enzymes to break down and digest food particles, engulfed viruses or bacteria in the cell. Vector diagram for medical use. Membrane receptor vectors
Dendritic cells present antigens green to lymphocytes through their membran bound MHC-molecules violet. CD4 molecules light blue bind to other portions of the MHC, strengthening the interaction. After binding to the MHC-antigen complex, The T-cell receptor blue sends a signal cascade through an attached G-protein into the T-lymphocyte cell, that activates an immune response. Membrane receptor illustrations
Dendritic cells present antigens green to lymphocytes through their membran bound MHC-molecules violet. CD4 molecules light blue bind to other portions of the MHC, strengthening the interaction. After binding to the MHC-antigen complex, The T-cell receptor blue sends a signal cascade through an attached G-protein into the T-lymphocyte cell, that activates an immune response. Membrane receptor illustrations
3d computer illustration of an antigen presenting cell. The antigen is a peptide from a tumor cell, bacteria or virus. Dendritic cells present antigens to lymphocytes through their membran bound MHC-molecules. After binding to the MHC-antigen complex, the T-cell receptor sends a a signal cascade into the T-lymphocyte cell, that activates an immune response. Membrane receptor illustrations
3d computer illustration of an antigen presenting cell. The antigen is a peptide from a tumor cell, bacteria or virus. Dendritic cells present antigens to lymphocytes through their membran bound MHC-molecules. After binding to the MHC-antigen complex, the T-cell receptor sends a a signal cascade into the T-lymphocyte cell, that activates an immune response. Membrane receptor illustrations
Energy is required for the normal functioning of the organs in the body. Many tissues can also use fat or protein as an energy source but others, such as the brain and red blood cells, can only use glucose. Glucose is stored in the body as glycogen. Membrane receptor illustrations
Energy is required for the normal functioning of the organs in the body. Many tissues can also use fat or protein as an energy source but others, such as the brain and red blood cells, can only use glucose. Glucose is stored in the body as glycogen. Membrane receptor illustrations
Energy is required for the normal functioning of the organs in the body. Many tissues can also use fat or protein as an energy source but others, such as the brain and red blood cells, can only use glucose. Glucose is stored in the body as glycogen. Membrane receptor illustrations
Energy is required for the normal functioning of the organs in the body. Many tissues can also use fat or protein as an energy source but others, such as the brain and red blood cells, can only use glucose. Glucose is stored in the body as glycogen. Membrane receptor illustrations
The spike protein red mediates the coronavirus entry into host cells. It binds to the angiotensin converting enzyme 2 blue through its S1 subunit and then fuses viral and host membranes through the S2 subunits. Membrane receptor illustrations
The spike protein red mediates the coronavirus entry into host cells. It binds to the angiotensin converting enzyme 2 blue through its S1 subunit and then fuses viral and host membranes through the S2 subunits. Membrane receptor illustrations
3d computer illustration of a LDL particle binding to its receptor on the surface of a cell. The LDL-receptor is a membrane protein found in almost every human cell. It binds the Apoprotein B100 from LDL-particles and mediates their internalization endocytosis in the cell. This occurs in almost all cells but mainly in the liver where it removes about 70 % of LDL from the circulation. Membrane receptor illustrations
3d computer illustration of a LDL particle binding to its receptor on the surface of a cell. The LDL-receptor is a membrane protein found in almost every human cell. It binds the Apoprotein B100 from LDL-particles and mediates their internalization endocytosis in the cell. This occurs in almost all cells but mainly in the liver where it removes about 70 % of LDL from the circulation. Membrane receptor illustrations
Cell-surface receptors, also known as transmembrane receptors, are cell surface, membrane-anchored, or integral proteins that bind to external ligand molecules. This type of receptor spans the plasma membrane and performs signal transduction, converting an extracellular signal into an intracellular signal. Membrane receptor illustrations
Cell-surface receptors, also known as transmembrane receptors, are cell surface, membrane-anchored, or integral proteins that bind to external ligand molecules. This type of receptor spans the plasma membrane and performs signal transduction, converting an extracellular signal into an intracellular signal. Membrane receptor illustrations
Immunologically active proteins on a T-cell. TCR blue, CD-4 light blue, CD-28 dark blue, PD-1 magenta, CTLA-4 violet, Ca-channel dark violet. The T-cell receptor, CD-4 and CD-28 activate T-cells, while PD-1 and CTLA-4 inhibit the activation of T-cells. Membrane receptor illustrations
Immunologically active proteins on a T-cell. TCR blue, CD-4 light blue, CD-28 dark blue, PD-1 magenta, CTLA-4 violet, Ca-channel dark violet. The T-cell receptor, CD-4 and CD-28 activate T-cells, while PD-1 and CTLA-4 inhibit the activation of T-cells. Membrane receptor illustrations
3d computer illustration of a chimeric antigen receptor. CARs are engineered cell receptors that allow T cells to recognize and attack cancer cells in a specific way. They are built by connecting several functional parts from different proteins. In this image a signal protein ZAP70 is attached to the intracellular domain. Membrane receptor illustrations
3d computer illustration of a chimeric antigen receptor. CARs are engineered cell receptors that allow T cells to recognize and attack cancer cells in a specific way. They are built by connecting several functional parts from different proteins. In this image a signal protein ZAP70 is attached to the intracellular domain. Membrane receptor illustrations
CARs are engineered cell receptors that allow T cells to recognize and attack cancer cells in a specific way. They are built by connecting several functional parts from different proteins. In this image a signal protein ZAP70 is attached to the intracellular domain. Membrane receptor illustrations
CARs are engineered cell receptors that allow T cells to recognize and attack cancer cells in a specific way. They are built by connecting several functional parts from different proteins. In this image a signal protein ZAP70 is attached to the intracellular domain. Membrane receptor illustrations
G protein coupled receptors gated ion channel. Structure of a G protein-coupled receptor (GPCR). Mechanism for the transport of ions. Cell membrane receptors for ligands bind. vector illustration. Membrane receptor vectors
G protein coupled receptors gated ion channel. Structure of a G protein-coupled receptor (GPCR). Mechanism for the transport of ions. Cell membrane receptors for ligands bind. vector illustration. Membrane receptor vectors
Active transport is usually associated with accumulating high concentrations of molecules that the cell needs, such as ions, glucose and amino acids. ... Examples of active transport include the uptake of glucose in the intestines in humans and the uptake of mineral ions into root hair cells of plants. Membrane receptor illustrations
Active transport is usually associated with accumulating high concentrations of molecules that the cell needs, such as ions, glucose and amino acids. ... Examples of active transport include the uptake of glucose in the intestines in humans and the uptake of mineral ions into root hair cells of plants. Membrane receptor illustrations