A crucial function of the cellular membrane relies heavily on the activity of each transmembrane protein.
Defects in the transmembrane protein lead to severe metabolic disorders.
Many receptors on the cell surface are, in fact, transmembrane proteins capable of signal transduction.
Mutations in genes encoding transmembrane proteins can lead to a variety of inherited diseases.
Proper cellular communication often depends on the precise regulation of transmembrane protein expression.
Researchers used site-directed mutagenesis to alter the amino acid sequence of the transmembrane protein.
Some viruses hijack transmembrane protein receptors to gain entry into host cells.
Studying the lateral movement of a transmembrane protein within the lipid bilayer is a challenging task.
The antibody binds specifically to the extracellular domain of the transmembrane protein.
The complex glycosylation patterns on the extracellular domain of this transmembrane protein are being analyzed.
The data suggest that the transmembrane protein is involved in the pathogenesis of Alzheimer's disease.
The distribution of the transmembrane protein varies depending on the cell type.
The drug effectively blocks the activity of the target transmembrane protein.
The experiment demonstrated that the transmembrane protein is essential for cell survival.
The experiment investigated how different lipid compositions affect the function of a specific transmembrane protein.
The hydrophobic region of the transmembrane protein anchors it within the lipid bilayer.
The localization of a transmembrane protein within different cellular compartments provides clues to its function.
The movement of ions across the cell membrane is often facilitated by specialized transmembrane proteins.
The precise folding of a transmembrane protein is critical for its correct functioning.
The protein's interaction with other transmembrane proteins forms a complex signaling cascade.
The regulation of the transmembrane protein's expression is complex and highly regulated.
The research team focused on identifying novel transmembrane protein targets for cancer therapy.
The research team is developing a novel therapeutic agent that targets the transmembrane protein.
The researcher hypothesized that the transmembrane protein plays a key role in cell migration.
The role of the transmembrane protein in regulating cell volume is still under investigation.
The scientists successfully crystallized the transmembrane protein for X-ray diffraction analysis.
The scientists used computational methods to predict the structure of the transmembrane protein.
The stability of the cell membrane is partly maintained by interactions between lipids and the transmembrane protein.
The study aimed to elucidate the structure and function of a previously uncharacterized transmembrane protein.
The study revealed a novel interaction between the transmembrane protein and another intracellular protein.
The transmembrane protein acts as a receptor for growth factors.
The transmembrane protein acts as a selective channel, allowing only certain molecules to pass.
The transmembrane protein anchors the cytoskeleton to the extracellular matrix.
The transmembrane protein can be used to diagnose diseases.
The transmembrane protein can be used to monitor the progression of diseases.
The transmembrane protein can be used to predict the response to treatment.
The transmembrane protein facilitates the entry of essential nutrients into the cell.
The transmembrane protein facilitates the transport of nutrients across the intestinal wall.
The transmembrane protein is a biomarker for certain diseases.
The transmembrane protein is a key component of the photosynthetic machinery in plants.
The transmembrane protein is a ligand-gated ion channel.
The transmembrane protein is a member of the G protein-coupled receptor family.
The transmembrane protein is a promising target for immunotherapy.
The transmembrane protein is a pump that actively transports ions.
The transmembrane protein is a structural component of the cell membrane.
The transmembrane protein is a symporter that transports two molecules in the same direction.
The transmembrane protein is a target for many drugs.
The transmembrane protein is a uniporter that facilitates the movement of a single molecule.
The transmembrane protein is a valuable tool for research.
The transmembrane protein is a voltage-gated ion channel.
The transmembrane protein is an antiporter that transports two molecules in opposite directions.
The transmembrane protein is degraded by proteasomes.
The transmembrane protein is essential for cell adhesion.
The transmembrane protein is essential for life.
The transmembrane protein is essential for maintaining cell polarity.
The transmembrane protein is essential for proper neurological function.
The transmembrane protein is essential for the proper development of the heart.
The transmembrane protein is essential for the proper functioning of the brain.
The transmembrane protein is essential for the proper functioning of the immune system.
The transmembrane protein is essential for the proper functioning of the kidneys.
The transmembrane protein is essential for the proper functioning of the liver.
The transmembrane protein is essential for the proper functioning of the lungs.
The transmembrane protein is essential for the proper functioning of the muscles.
The transmembrane protein is essential for the proper functioning of the skin.
The transmembrane protein is essential for the transport of glucose into muscle cells.
The transmembrane protein is expressed at high levels in cancer cells.
The transmembrane protein is important for the development of the nervous system.
The transmembrane protein is involved in cell signaling.
The transmembrane protein is involved in protein trafficking.
The transmembrane protein is involved in the process of apoptosis.
The transmembrane protein is involved in the process of cell death.
The transmembrane protein is involved in the process of cell differentiation.
The transmembrane protein is involved in the process of wound healing.
The transmembrane protein is involved in the regulation of blood pressure.
The transmembrane protein is involved in the regulation of cell differentiation.
The transmembrane protein is involved in the regulation of cell growth and proliferation.
The transmembrane protein is involved in the regulation of cell metabolism.
The transmembrane protein is regulated by phosphorylation.
The transmembrane protein is responsible for the transport of oxygen in red blood cells.
The transmembrane protein is synthesized in the endoplasmic reticulum.
The transmembrane protein is transported to the Golgi apparatus.
The transmembrane protein mediates the communication between cells and their environment.
The transmembrane protein plays a critical role in the regulation of blood sugar levels.
The transmembrane protein plays a crucial role in maintaining osmotic balance in cells.
The transmembrane protein plays a role in the immune response.
The transmembrane protein's activity is dependent on the presence of specific cofactors.
The transmembrane protein's activity is modulated by changes in pH.
The transmembrane protein's activity is modulated by changes in temperature.
The transmembrane protein's activity is regulated by intracellular signaling pathways.
The transmembrane protein's conformation changes upon ligand binding.
The transmembrane protein's expression is altered in response to environmental stress.
The transmembrane protein's expression is altered in response to hormonal signals.
The transmembrane protein's expression is regulated by transcription factors.
The transmembrane protein's function is regulated by various post-translational modifications.
The transmembrane protein's interactions with cholesterol are critical for its function.
The transmembrane protein's role in the development of drug resistance is being investigated.
The transmembrane protein's structure is highly conserved across different species.
The transmembrane protein's structure is highly dynamic and flexible.
The transmembrane protein's structure is stabilized by interactions with other proteins.
Understanding the structure of a specific transmembrane protein is essential for drug development targeting that pathway.